pass1.c revision 1.33 1 1.33 christos /* $NetBSD: pass1.c,v 1.33 2005/01/13 15:22:35 christos Exp $ */
2 1.13 cgd
3 1.1 cgd /*
4 1.7 mycroft * Copyright (c) 1980, 1986, 1993
5 1.7 mycroft * The Regents of the University of California. All rights reserved.
6 1.1 cgd *
7 1.1 cgd * Redistribution and use in source and binary forms, with or without
8 1.1 cgd * modification, are permitted provided that the following conditions
9 1.1 cgd * are met:
10 1.1 cgd * 1. Redistributions of source code must retain the above copyright
11 1.1 cgd * notice, this list of conditions and the following disclaimer.
12 1.1 cgd * 2. Redistributions in binary form must reproduce the above copyright
13 1.1 cgd * notice, this list of conditions and the following disclaimer in the
14 1.1 cgd * documentation and/or other materials provided with the distribution.
15 1.29 agc * 3. Neither the name of the University nor the names of its contributors
16 1.1 cgd * may be used to endorse or promote products derived from this software
17 1.1 cgd * without specific prior written permission.
18 1.1 cgd *
19 1.1 cgd * THIS SOFTWARE IS PROVIDED BY THE REGENTS AND CONTRIBUTORS ``AS IS'' AND
20 1.1 cgd * ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE
21 1.1 cgd * IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE
22 1.1 cgd * ARE DISCLAIMED. IN NO EVENT SHALL THE REGENTS OR CONTRIBUTORS BE LIABLE
23 1.1 cgd * FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL
24 1.1 cgd * DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS
25 1.1 cgd * OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION)
26 1.1 cgd * HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT
27 1.1 cgd * LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY
28 1.1 cgd * OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF
29 1.1 cgd * SUCH DAMAGE.
30 1.1 cgd */
31 1.1 cgd
32 1.17 lukem #include <sys/cdefs.h>
33 1.1 cgd #ifndef lint
34 1.13 cgd #if 0
35 1.19 lukem static char sccsid[] = "@(#)pass1.c 8.6 (Berkeley) 4/28/95";
36 1.13 cgd #else
37 1.33 christos __RCSID("$NetBSD: pass1.c,v 1.33 2005/01/13 15:22:35 christos Exp $");
38 1.13 cgd #endif
39 1.1 cgd #endif /* not lint */
40 1.1 cgd
41 1.1 cgd #include <sys/param.h>
42 1.32 hannken #include <sys/stat.h>
43 1.6 cgd #include <sys/time.h>
44 1.19 lukem
45 1.7 mycroft #include <ufs/ufs/dinode.h>
46 1.7 mycroft #include <ufs/ufs/dir.h>
47 1.7 mycroft #include <ufs/ffs/fs.h>
48 1.27 fvdl #include <ufs/ufs/ufs_bswap.h>
49 1.27 fvdl #include <ufs/ffs/ffs_extern.h>
50 1.12 cgd
51 1.19 lukem #include <err.h>
52 1.20 lukem #include <stdio.h>
53 1.20 lukem #include <stdlib.h>
54 1.1 cgd #include <string.h>
55 1.12 cgd
56 1.1 cgd #include "fsck.h"
57 1.12 cgd #include "extern.h"
58 1.16 christos #include "fsutil.h"
59 1.1 cgd
60 1.26 fvdl static daddr_t badblk;
61 1.26 fvdl static daddr_t dupblk;
62 1.15 christos static void checkinode __P((ino_t, struct inodesc *));
63 1.27 fvdl static ino_t lastino;
64 1.1 cgd
65 1.12 cgd void
66 1.1 cgd pass1()
67 1.1 cgd {
68 1.27 fvdl ino_t inumber, inosused;
69 1.27 fvdl int c;
70 1.27 fvdl daddr_t i, cgd;
71 1.1 cgd struct inodesc idesc;
72 1.27 fvdl struct cg *cgp = cgrp;
73 1.27 fvdl struct inostat *info;
74 1.27 fvdl uint8_t *cp;
75 1.1 cgd
76 1.1 cgd /*
77 1.1 cgd * Set file system reserved blocks in used block map.
78 1.1 cgd */
79 1.21 bouyer for (c = 0; c < sblock->fs_ncg; c++) {
80 1.21 bouyer cgd = cgdmin(sblock, c);
81 1.14 mycroft if (c == 0)
82 1.21 bouyer i = cgbase(sblock, c);
83 1.14 mycroft else
84 1.21 bouyer i = cgsblock(sblock, c);
85 1.1 cgd for (; i < cgd; i++)
86 1.1 cgd setbmap(i);
87 1.1 cgd }
88 1.21 bouyer i = sblock->fs_csaddr;
89 1.21 bouyer cgd = i + howmany(sblock->fs_cssize, sblock->fs_fsize);
90 1.14 mycroft for (; i < cgd; i++)
91 1.14 mycroft setbmap(i);
92 1.1 cgd /*
93 1.1 cgd * Find all allocated blocks.
94 1.1 cgd */
95 1.10 mycroft memset(&idesc, 0, sizeof(struct inodesc));
96 1.1 cgd idesc.id_func = pass1check;
97 1.1 cgd n_files = n_blks = 0;
98 1.21 bouyer for (c = 0; c < sblock->fs_ncg; c++) {
99 1.27 fvdl inumber = c * sblock->fs_ipg;
100 1.27 fvdl setinodebuf(inumber);
101 1.27 fvdl getblk(&cgblk, cgtod(sblock, c), sblock->fs_cgsize);
102 1.27 fvdl memcpy(cgp, cgblk.b_un.b_cg, sblock->fs_cgsize);
103 1.27 fvdl if((doswap && !needswap) || (!doswap && needswap))
104 1.27 fvdl ffs_cg_swap(cgblk.b_un.b_cg, cgp, sblock);
105 1.27 fvdl if (is_ufs2)
106 1.27 fvdl inosused = cgp->cg_initediblk;
107 1.27 fvdl else
108 1.27 fvdl inosused = sblock->fs_ipg;
109 1.24 lukem if (got_siginfo) {
110 1.27 fvdl printf("%s: phase 1: cyl group %d of %d (%d%%)\n",
111 1.24 lukem cdevname(), c, sblock->fs_ncg,
112 1.24 lukem c * 100 / sblock->fs_ncg);
113 1.24 lukem got_siginfo = 0;
114 1.24 lukem }
115 1.33 christos #ifndef SMALL
116 1.33 christos progress_bar(cdevname(), preen ? NULL : "phase 1",
117 1.33 christos c, sblock->fs_ncg);
118 1.33 christos #endif /* ! SMALL */
119 1.27 fvdl /*
120 1.27 fvdl * If we are using soft updates, then we can trust the
121 1.27 fvdl * cylinder group inode allocation maps to tell us which
122 1.27 fvdl * inodes are allocated. We will scan the used inode map
123 1.27 fvdl * to find the inodes that are really in use, and then
124 1.27 fvdl * read only those inodes in from disk.
125 1.27 fvdl */
126 1.27 fvdl if (preen && usedsoftdep) {
127 1.27 fvdl if (!cg_chkmagic(cgp, 0))
128 1.27 fvdl pfatal("CG %d: BAD MAGIC NUMBER\n", c);
129 1.27 fvdl cp = &cg_inosused(cgp, 0)[(inosused - 1) / CHAR_BIT];
130 1.27 fvdl for ( ; inosused > 0; inosused -= CHAR_BIT, cp--) {
131 1.27 fvdl if (*cp == 0)
132 1.27 fvdl continue;
133 1.27 fvdl for (i = 1 << (CHAR_BIT - 1); i > 0; i >>= 1) {
134 1.27 fvdl if (*cp & i)
135 1.27 fvdl break;
136 1.27 fvdl inosused--;
137 1.27 fvdl }
138 1.27 fvdl break;
139 1.27 fvdl }
140 1.27 fvdl if (inosused < 0)
141 1.27 fvdl inosused = 0;
142 1.27 fvdl }
143 1.27 fvdl /*
144 1.27 fvdl * Allocate inoinfo structures for the allocated inodes.
145 1.27 fvdl */
146 1.27 fvdl inostathead[c].il_numalloced = inosused;
147 1.27 fvdl if (inosused == 0) {
148 1.27 fvdl inostathead[c].il_stat = 0;
149 1.27 fvdl continue;
150 1.27 fvdl }
151 1.27 fvdl info = calloc((unsigned)inosused, sizeof(struct inostat));
152 1.27 fvdl if (info == NULL) {
153 1.27 fvdl pfatal("cannot alloc %u bytes for inoinfo\n",
154 1.27 fvdl (unsigned)(sizeof(struct inostat) * inosused));
155 1.27 fvdl abort();
156 1.27 fvdl }
157 1.27 fvdl inostathead[c].il_stat = info;
158 1.27 fvdl /*
159 1.27 fvdl * Scan the allocated inodes.
160 1.27 fvdl */
161 1.27 fvdl for (i = 0; i < inosused; i++, inumber++) {
162 1.27 fvdl if (inumber < ROOTINO) {
163 1.27 fvdl (void)getnextinode(inumber);
164 1.1 cgd continue;
165 1.27 fvdl }
166 1.7 mycroft checkinode(inumber, &idesc);
167 1.7 mycroft }
168 1.27 fvdl lastino += 1;
169 1.27 fvdl if (inosused < sblock->fs_ipg || inumber == lastino)
170 1.27 fvdl continue;
171 1.27 fvdl /*
172 1.27 fvdl * If we were not able to determine in advance which inodes
173 1.27 fvdl * were in use, then reduce the size of the inoinfo structure
174 1.27 fvdl * to the size necessary to describe the inodes that we
175 1.27 fvdl * really found.
176 1.27 fvdl */
177 1.27 fvdl if (lastino < (c * sblock->fs_ipg))
178 1.27 fvdl inosused = 0;
179 1.27 fvdl else
180 1.27 fvdl inosused = lastino - (c * sblock->fs_ipg);
181 1.27 fvdl inostathead[c].il_numalloced = inosused;
182 1.27 fvdl if (inosused == 0) {
183 1.27 fvdl free(inostathead[c].il_stat);
184 1.27 fvdl inostathead[c].il_stat = 0;
185 1.27 fvdl continue;
186 1.27 fvdl }
187 1.27 fvdl info = calloc((unsigned)inosused, sizeof(struct inostat));
188 1.27 fvdl if (info == NULL) {
189 1.27 fvdl pfatal("cannot alloc %u bytes for inoinfo\n",
190 1.27 fvdl (unsigned)(sizeof(struct inostat) * inosused));
191 1.27 fvdl abort();
192 1.27 fvdl }
193 1.27 fvdl memmove(info, inostathead[c].il_stat, inosused * sizeof(*info));
194 1.27 fvdl free(inostathead[c].il_stat);
195 1.27 fvdl inostathead[c].il_stat = info;
196 1.7 mycroft }
197 1.33 christos #ifndef SMALL
198 1.33 christos if (preen)
199 1.33 christos progress_add(sblock->fs_ncg);
200 1.33 christos else
201 1.33 christos progress_done();
202 1.33 christos #endif /* ! SMALL */
203 1.7 mycroft freeinodebuf();
204 1.21 bouyer do_blkswap = 0; /* has been done */
205 1.7 mycroft }
206 1.7 mycroft
207 1.15 christos static void
208 1.7 mycroft checkinode(inumber, idesc)
209 1.7 mycroft ino_t inumber;
210 1.17 lukem struct inodesc *idesc;
211 1.7 mycroft {
212 1.27 fvdl union dinode *dp;
213 1.7 mycroft struct zlncnt *zlnp;
214 1.27 fvdl daddr_t ndb;
215 1.27 fvdl int j;
216 1.7 mycroft mode_t mode;
217 1.27 fvdl u_int64_t size, kernmaxfilesize;
218 1.27 fvdl int64_t blocks;
219 1.30 dbj char symbuf[MAXBSIZE];
220 1.27 fvdl struct inostat *info;
221 1.7 mycroft
222 1.7 mycroft dp = getnextinode(inumber);
223 1.27 fvdl info = inoinfo(inumber);
224 1.27 fvdl mode = iswap16(DIP(dp, mode)) & IFMT;
225 1.27 fvdl size = iswap64(DIP(dp, size));
226 1.7 mycroft if (mode == 0) {
227 1.27 fvdl if ((is_ufs2 &&
228 1.27 fvdl (memcmp(dp->dp2.di_db, ufs2_zino.di_db,
229 1.27 fvdl NDADDR * sizeof(int64_t)) ||
230 1.27 fvdl memcmp(dp->dp2.di_ib, ufs2_zino.di_ib,
231 1.27 fvdl NIADDR * sizeof(int64_t))))
232 1.27 fvdl ||
233 1.27 fvdl (!is_ufs2 &&
234 1.27 fvdl (memcmp(dp->dp1.di_db, ufs1_zino.di_db,
235 1.26 fvdl NDADDR * sizeof(int32_t)) ||
236 1.27 fvdl memcmp(dp->dp1.di_ib, ufs1_zino.di_ib,
237 1.27 fvdl NIADDR * sizeof(int32_t)))) ||
238 1.27 fvdl mode || size) {
239 1.15 christos pfatal("PARTIALLY ALLOCATED INODE I=%u", inumber);
240 1.1 cgd if (reply("CLEAR") == 1) {
241 1.1 cgd dp = ginode(inumber);
242 1.1 cgd clearinode(dp);
243 1.1 cgd inodirty();
244 1.21 bouyer } else
245 1.21 bouyer markclean = 0;
246 1.1 cgd }
247 1.27 fvdl info->ino_state = USTATE;
248 1.7 mycroft return;
249 1.7 mycroft }
250 1.7 mycroft lastino = inumber;
251 1.27 fvdl /* This should match the file size limit in ffs_mountfs(). */
252 1.27 fvdl if (is_ufs2)
253 1.27 fvdl kernmaxfilesize = sblock->fs_maxfilesize;
254 1.27 fvdl else
255 1.27 fvdl kernmaxfilesize = (u_int64_t)0x80000000 * sblock->fs_bsize - 1;
256 1.27 fvdl if (size > kernmaxfilesize || size + sblock->fs_bsize - 1 < size ||
257 1.21 bouyer (mode == IFDIR && size > MAXDIRSIZE)) {
258 1.7 mycroft if (debug)
259 1.23 lukem printf("bad size %llu:",(unsigned long long)size);
260 1.7 mycroft goto unknown;
261 1.7 mycroft }
262 1.7 mycroft if (!preen && mode == IFMT && reply("HOLD BAD BLOCK") == 1) {
263 1.7 mycroft dp = ginode(inumber);
264 1.27 fvdl DIP(dp, size) = iswap64(sblock->fs_fsize);
265 1.21 bouyer size = sblock->fs_fsize;
266 1.27 fvdl DIP(dp, mode) = iswap16(IFREG|0600);
267 1.7 mycroft inodirty();
268 1.7 mycroft }
269 1.21 bouyer ndb = howmany(size, sblock->fs_bsize);
270 1.7 mycroft if (ndb < 0) {
271 1.7 mycroft if (debug)
272 1.27 fvdl printf("bad size %llu ndb %lld:",
273 1.27 fvdl (unsigned long long)size, (long long)ndb);
274 1.7 mycroft goto unknown;
275 1.7 mycroft }
276 1.7 mycroft if (mode == IFBLK || mode == IFCHR)
277 1.7 mycroft ndb++;
278 1.7 mycroft if (mode == IFLNK) {
279 1.7 mycroft /*
280 1.7 mycroft * Note that the old fastlink format always had di_blocks set
281 1.7 mycroft * to 0. Other than that we no longer use the `spare' field
282 1.7 mycroft * (which is now the extended uid) for sanity checking, the
283 1.7 mycroft * new format is the same as the old. We simply ignore the
284 1.7 mycroft * conversion altogether. - mycroft, 19MAY1994
285 1.7 mycroft */
286 1.27 fvdl if (!is_ufs2 && doinglevel2 &&
287 1.27 fvdl size > 0 && size < MAXSYMLINKLEN_UFS1 &&
288 1.27 fvdl DIP(dp, blocks) != 0) {
289 1.7 mycroft if (bread(fsreadfd, symbuf,
290 1.27 fvdl fsbtodb(sblock, iswap32(DIP(dp, db[0]))),
291 1.9 ws (long)secsize) != 0)
292 1.19 lukem errx(EEXIT, "cannot read symlink");
293 1.7 mycroft if (debug) {
294 1.21 bouyer symbuf[size] = 0;
295 1.23 lukem printf("convert symlink %u(%s) of size %lld\n",
296 1.18 mrg inumber, symbuf,
297 1.21 bouyer (unsigned long long)size);
298 1.7 mycroft }
299 1.7 mycroft dp = ginode(inumber);
300 1.27 fvdl memmove(dp->dp1.di_db, symbuf, (long)size);
301 1.27 fvdl DIP(dp, blocks) = 0;
302 1.7 mycroft inodirty();
303 1.7 mycroft }
304 1.7 mycroft /*
305 1.7 mycroft * Fake ndb value so direct/indirect block checks below
306 1.7 mycroft * will detect any garbage after symlink string.
307 1.7 mycroft */
308 1.31 dbj if ((sblock->fs_maxsymlinklen < 0) ||
309 1.31 dbj (size < sblock->fs_maxsymlinklen) ||
310 1.25 dbj (isappleufs && (size < APPLEUFS_MAXSYMLINKLEN)) ||
311 1.27 fvdl (sblock->fs_maxsymlinklen == 0 && DIP(dp, blocks) == 0)) {
312 1.27 fvdl if (is_ufs2)
313 1.27 fvdl ndb = howmany(size, sizeof(int64_t));
314 1.27 fvdl else
315 1.27 fvdl ndb = howmany(size, sizeof(int32_t));
316 1.7 mycroft if (ndb > NDADDR) {
317 1.7 mycroft j = ndb - NDADDR;
318 1.7 mycroft for (ndb = 1; j > 1; j--)
319 1.21 bouyer ndb *= NINDIR(sblock);
320 1.7 mycroft ndb += NDADDR;
321 1.7 mycroft }
322 1.7 mycroft }
323 1.7 mycroft }
324 1.7 mycroft for (j = ndb; j < NDADDR; j++)
325 1.27 fvdl if (DIP(dp, db[j]) != 0) {
326 1.27 fvdl if (debug) {
327 1.27 fvdl if (!is_ufs2)
328 1.27 fvdl printf("bad direct addr ix %d: %d [ndb %lld]\n",
329 1.27 fvdl j, iswap32(dp->dp1.di_db[j]),
330 1.27 fvdl (long long)ndb);
331 1.27 fvdl else
332 1.27 fvdl printf("bad direct addr ix %d: %lld [ndb %lld]\n",
333 1.28 he j, (long long)iswap64(dp->dp2.di_db[j]),
334 1.27 fvdl (long long)ndb);
335 1.27 fvdl }
336 1.27 fvdl goto unknown;
337 1.7 mycroft }
338 1.27 fvdl
339 1.7 mycroft for (j = 0, ndb -= NDADDR; ndb > 0; j++)
340 1.21 bouyer ndb /= NINDIR(sblock);
341 1.27 fvdl
342 1.7 mycroft for (; j < NIADDR; j++)
343 1.27 fvdl if (DIP(dp, ib[j]) != 0) {
344 1.27 fvdl if (debug) {
345 1.27 fvdl if (!is_ufs2)
346 1.27 fvdl printf("bad indirect addr: %d\n",
347 1.27 fvdl iswap32(dp->dp1.di_ib[j]));
348 1.27 fvdl else
349 1.27 fvdl printf("bad indirect addr: %lld\n",
350 1.27 fvdl (long long)iswap64(dp->dp2.di_ib[j]));
351 1.27 fvdl }
352 1.27 fvdl goto unknown;
353 1.7 mycroft }
354 1.7 mycroft if (ftypeok(dp) == 0)
355 1.7 mycroft goto unknown;
356 1.7 mycroft n_files++;
357 1.27 fvdl info->ino_linkcnt = iswap16(DIP(dp, nlink));
358 1.27 fvdl if (info->ino_linkcnt <= 0) {
359 1.7 mycroft zlnp = (struct zlncnt *)malloc(sizeof *zlnp);
360 1.7 mycroft if (zlnp == NULL) {
361 1.21 bouyer markclean = 0;
362 1.7 mycroft pfatal("LINK COUNT TABLE OVERFLOW");
363 1.22 fvdl if (reply("CONTINUE") == 0) {
364 1.22 fvdl ckfini();
365 1.19 lukem exit(EEXIT);
366 1.22 fvdl }
367 1.7 mycroft } else {
368 1.7 mycroft zlnp->zlncnt = inumber;
369 1.7 mycroft zlnp->next = zlnhead;
370 1.7 mycroft zlnhead = zlnp;
371 1.7 mycroft }
372 1.7 mycroft }
373 1.7 mycroft if (mode == IFDIR) {
374 1.21 bouyer if (size == 0)
375 1.27 fvdl info->ino_state = DCLEAR;
376 1.7 mycroft else
377 1.27 fvdl info->ino_state = DSTATE;
378 1.7 mycroft cacheino(dp, inumber);
379 1.27 fvdl countdirs++;
380 1.7 mycroft } else
381 1.27 fvdl info->ino_state = FSTATE;
382 1.27 fvdl info->ino_type = IFTODT(mode);
383 1.27 fvdl if (!is_ufs2 && doinglevel2 &&
384 1.27 fvdl (iswap16(dp->dp1.di_ouid) != (u_short)-1 ||
385 1.27 fvdl iswap16(dp->dp1.di_ogid) != (u_short)-1)) {
386 1.7 mycroft dp = ginode(inumber);
387 1.27 fvdl dp->dp1.di_uid = iswap32(iswap16(dp->dp1.di_ouid));
388 1.27 fvdl dp->dp1.di_ouid = iswap16(-1);
389 1.27 fvdl dp->dp1.di_gid = iswap32(iswap16(dp->dp1.di_ogid));
390 1.27 fvdl dp->dp1.di_ogid = iswap16(-1);
391 1.7 mycroft inodirty();
392 1.7 mycroft }
393 1.7 mycroft badblk = dupblk = 0;
394 1.7 mycroft idesc->id_number = inumber;
395 1.32 hannken if (iswap32(DIP(dp, flags)) & SF_SNAPSHOT)
396 1.32 hannken idesc->id_type = SNAP;
397 1.32 hannken else
398 1.32 hannken idesc->id_type = ADDR;
399 1.7 mycroft (void)ckinode(dp, idesc);
400 1.21 bouyer idesc->id_entryno *= btodb(sblock->fs_fsize);
401 1.27 fvdl if (is_ufs2)
402 1.27 fvdl blocks = iswap64(dp->dp2.di_blocks);
403 1.27 fvdl else
404 1.27 fvdl blocks = iswap32(dp->dp1.di_blocks);
405 1.27 fvdl if (blocks != idesc->id_entryno) {
406 1.27 fvdl pwarn("INCORRECT BLOCK COUNT I=%u (%lld should be %lld)",
407 1.27 fvdl inumber, (long long)blocks, (long long)idesc->id_entryno);
408 1.7 mycroft if (preen)
409 1.7 mycroft printf(" (CORRECTED)\n");
410 1.21 bouyer else if (reply("CORRECT") == 0) {
411 1.21 bouyer markclean = 0;
412 1.7 mycroft return;
413 1.21 bouyer }
414 1.7 mycroft dp = ginode(inumber);
415 1.27 fvdl if (is_ufs2)
416 1.27 fvdl dp->dp2.di_blocks = iswap64(idesc->id_entryno);
417 1.27 fvdl else
418 1.27 fvdl dp->dp1.di_blocks = iswap32((int32_t)idesc->id_entryno);
419 1.7 mycroft inodirty();
420 1.7 mycroft }
421 1.7 mycroft return;
422 1.7 mycroft unknown:
423 1.15 christos pfatal("UNKNOWN FILE TYPE I=%u", inumber);
424 1.27 fvdl info->ino_state = FCLEAR;
425 1.7 mycroft if (reply("CLEAR") == 1) {
426 1.27 fvdl info->ino_state = USTATE;
427 1.7 mycroft dp = ginode(inumber);
428 1.7 mycroft clearinode(dp);
429 1.7 mycroft inodirty();
430 1.21 bouyer } else
431 1.21 bouyer markclean = 0;
432 1.1 cgd }
433 1.1 cgd
434 1.12 cgd int
435 1.1 cgd pass1check(idesc)
436 1.17 lukem struct inodesc *idesc;
437 1.1 cgd {
438 1.1 cgd int res = KEEPON;
439 1.1 cgd int anyout, nfrags;
440 1.26 fvdl daddr_t blkno = idesc->id_blkno;
441 1.17 lukem struct dups *dlp;
442 1.1 cgd struct dups *new;
443 1.1 cgd
444 1.32 hannken if (idesc->id_type == SNAP) {
445 1.32 hannken if (blkno == BLK_NOCOPY || blkno == BLK_SNAP)
446 1.32 hannken return (KEEPON);
447 1.32 hannken }
448 1.1 cgd if ((anyout = chkrange(blkno, idesc->id_numfrags)) != 0) {
449 1.1 cgd blkerror(idesc->id_number, "BAD", blkno);
450 1.1 cgd if (badblk++ >= MAXBAD) {
451 1.15 christos pwarn("EXCESSIVE BAD BLKS I=%u",
452 1.1 cgd idesc->id_number);
453 1.1 cgd if (preen)
454 1.1 cgd printf(" (SKIPPING)\n");
455 1.22 fvdl else if (reply("CONTINUE") == 0) {
456 1.22 fvdl markclean = 0;
457 1.22 fvdl ckfini();
458 1.19 lukem exit(EEXIT);
459 1.22 fvdl }
460 1.1 cgd return (STOP);
461 1.1 cgd }
462 1.1 cgd }
463 1.1 cgd for (nfrags = idesc->id_numfrags; nfrags > 0; blkno++, nfrags--) {
464 1.1 cgd if (anyout && chkrange(blkno, 1)) {
465 1.1 cgd res = SKIP;
466 1.1 cgd } else if (!testbmap(blkno)) {
467 1.1 cgd n_blks++;
468 1.1 cgd setbmap(blkno);
469 1.1 cgd } else {
470 1.1 cgd blkerror(idesc->id_number, "DUP", blkno);
471 1.1 cgd if (dupblk++ >= MAXDUP) {
472 1.15 christos pwarn("EXCESSIVE DUP BLKS I=%u",
473 1.1 cgd idesc->id_number);
474 1.1 cgd if (preen)
475 1.1 cgd printf(" (SKIPPING)\n");
476 1.22 fvdl else if (reply("CONTINUE") == 0) {
477 1.22 fvdl markclean = 0;
478 1.22 fvdl ckfini();
479 1.19 lukem exit(EEXIT);
480 1.22 fvdl }
481 1.1 cgd return (STOP);
482 1.1 cgd }
483 1.1 cgd new = (struct dups *)malloc(sizeof(struct dups));
484 1.1 cgd if (new == NULL) {
485 1.21 bouyer markclean = 0;
486 1.1 cgd pfatal("DUP TABLE OVERFLOW.");
487 1.22 fvdl if (reply("CONTINUE") == 0) {
488 1.22 fvdl markclean = 0;
489 1.22 fvdl ckfini();
490 1.19 lukem exit(EEXIT);
491 1.22 fvdl }
492 1.1 cgd return (STOP);
493 1.1 cgd }
494 1.1 cgd new->dup = blkno;
495 1.1 cgd if (muldup == 0) {
496 1.1 cgd duplist = muldup = new;
497 1.1 cgd new->next = 0;
498 1.1 cgd } else {
499 1.1 cgd new->next = muldup->next;
500 1.1 cgd muldup->next = new;
501 1.1 cgd }
502 1.1 cgd for (dlp = duplist; dlp != muldup; dlp = dlp->next)
503 1.1 cgd if (dlp->dup == blkno)
504 1.1 cgd break;
505 1.1 cgd if (dlp == muldup && dlp->dup != blkno)
506 1.1 cgd muldup = new;
507 1.1 cgd }
508 1.1 cgd /*
509 1.1 cgd * count the number of blocks found in id_entryno
510 1.1 cgd */
511 1.1 cgd idesc->id_entryno++;
512 1.1 cgd }
513 1.1 cgd return (res);
514 1.1 cgd }
515