/** \ingroup header * \file lib/formats.c */ #include "system.h" #include #include #include /* XXX for %_i18ndomains */ #include #include #include #include "lib/misc.h" /* tag function proto */ #include "debug.h" struct headerTagFunc_s { rpmTag tag; /*!< Tag of extension. */ headerTagTagFunction func; /*!< Pointer to formatter function. */ }; /** \ingroup rpmfi * Retrieve file names from header. * * The representation of file names in package headers changed in rpm-4.0. * Originally, file names were stored as an array of absolute paths. * In rpm-4.0, file names are stored as separate arrays of dirname's and * basename's, * with a dirname index to associate the correct dirname * with each basname. * * This function is used to retrieve file names independent of how the * file names are represented in the package header. * * @param h header * @param tagN RPMTAG_BASENAMES | PMTAG_ORIGBASENAMES * @param withstate take file state into account? * @retval td tag data container * @return 1 on success */ static int fnTag(Header h, rpmTag tagN, int withstate, rpmtd td) { const char **baseNames, **dirNames; const char *fileStates = NULL; uint32_t *dirIndexes; rpm_count_t count, retcount, dncount; size_t size = 0; rpmTag dirNameTag = RPMTAG_DIRNAMES; rpmTag dirIndexesTag = RPMTAG_DIRINDEXES; int i, j; int rc = 0; /* assume failure */ struct rpmtd_s bnames, dnames, dixs, fstates; if (tagN == RPMTAG_ORIGBASENAMES) { dirNameTag = RPMTAG_ORIGDIRNAMES; dirIndexesTag = RPMTAG_ORIGDIRINDEXES; } if (!headerGet(h, tagN, &bnames, HEADERGET_MINMEM)) { return 0; /* no file list */ } (void) headerGet(h, dirNameTag, &dnames, HEADERGET_MINMEM); (void) headerGet(h, dirIndexesTag, &dixs, HEADERGET_MINMEM); retcount = count = rpmtdCount(&bnames); dncount = rpmtdCount(&dnames); /* Basic sanity checking for our interrelated tags */ if (rpmtdCount(&dixs) != count || dncount < 1 || dncount > count) td->flags |= RPMTD_INVALID; if (withstate) { /* no recorded states means no installed files */ if (!headerGet(h, RPMTAG_FILESTATES, &fstates, HEADERGET_MINMEM)) goto exit; if (rpmtdCount(&fstates) != count) td->flags |= RPMTD_INVALID; fileStates = fstates.data; } if (td->flags & RPMTD_INVALID) goto exit; baseNames = bnames.data; dirNames = dnames.data; dirIndexes = dixs.data; /* * fsm, psm and rpmfi assume the data is stored in a single allocation * block, until those assumptions are removed we need to jump through * a few hoops here and precalculate sizes etc */ for (i = 0; i < count; i++) { if (fileStates && !RPMFILE_IS_INSTALLED(fileStates[i])) { retcount--; continue; } /* Sanity check directory indexes are within bounds */ if (dirIndexes[i] >= dncount) { td->flags |= RPMTD_INVALID; break; } size += strlen(baseNames[i]) + strlen(dirNames[dirIndexes[i]]) + 1; } if (!(td->flags & RPMTD_INVALID)) { char **fileNames = xmalloc(size + (sizeof(*fileNames) * retcount)); char *t = ((char *) fileNames) + (sizeof(*fileNames) * retcount); for (i = 0, j = 0; i < count; i++) { if (fileStates && !RPMFILE_IS_INSTALLED(fileStates[i])) continue; fileNames[j++] = t; t = stpcpy( stpcpy(t, dirNames[dirIndexes[i]]), baseNames[i]); *t++ = '\0'; } td->data = fileNames; td->count = retcount; td->type = RPM_STRING_ARRAY_TYPE; td->flags |= RPMTD_ALLOCED; rc = 1; } exit: rpmtdFreeData(&bnames); rpmtdFreeData(&dnames); rpmtdFreeData(&dixs); /* only safe if the headerGet() on file states was actually called */ if (fileStates) rpmtdFreeData(&fstates); return rc; } static int filedepTag(Header h, rpmTag tagN, rpmtd td, headerGetFlags hgflags) { rpmfi fi = rpmfiNew(NULL, h, RPMTAG_BASENAMES, RPMFI_NOHEADER); rpmds ds = NULL; char **fdeps = NULL; int numfiles; char deptype = 'R'; int fileix; int rc = 0; numfiles = rpmfiFC(fi); if (numfiles <= 0) { goto exit; } if (tagN == RPMTAG_PROVIDENAME) deptype = 'P'; else if (tagN == RPMTAG_REQUIRENAME) deptype = 'R'; ds = rpmdsNew(h, tagN, 0); fdeps = xmalloc(numfiles * sizeof(*fdeps)); while ((fileix = rpmfiNext(fi)) >= 0) { ARGV_t deps = NULL; const uint32_t * ddict = NULL; int ndx = rpmfiFDepends(fi, &ddict); if (ddict != NULL) { while (ndx-- > 0) { const char * DNEVR; unsigned dix = *ddict++; char mydt = ((dix >> 24) & 0xff); if (mydt != deptype) continue; dix &= 0x00ffffff; (void) rpmdsSetIx(ds, dix-1); if (rpmdsNext(ds) < 0) continue; DNEVR = rpmdsDNEVR(ds); if (DNEVR != NULL) { argvAdd(&deps, DNEVR + 2); } } } fdeps[fileix] = deps ? argvJoin(deps, " ") : xstrdup(""); argvFree(deps); } td->data = fdeps; td->count = numfiles; td->flags = RPMTD_ALLOCED | RPMTD_PTR_ALLOCED; td->type = RPM_STRING_ARRAY_TYPE; rc = 1; exit: rpmfiFree(fi); rpmdsFree(ds); return rc; } typedef enum tMode_e { NORMALTRIGGER = 0, FILETRIGGER = 1, TRANSFILETRIGGER = 2, } tMode; /** * Retrieve trigger info. * @param mode type of trigger (see tMode_e) * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int triggercondsTagFor(tMode mode, Header h, rpmtd td, headerGetFlags hgflags) { uint32_t * indices; int i, j; char ** conds; struct rpmtd_s nametd, indextd, flagtd, versiontd, scripttd; int hgeflags = HEADERGET_MINMEM; rpmTagVal triggername, triggerindex, triggerflags; rpmTagVal triggerversion, triggerscripts; switch (mode) { case NORMALTRIGGER: triggername = RPMTAG_TRIGGERNAME; triggerindex = RPMTAG_TRIGGERINDEX; triggerflags = RPMTAG_TRIGGERFLAGS; triggerversion = RPMTAG_TRIGGERVERSION; triggerscripts = RPMTAG_TRIGGERSCRIPTS; break; case FILETRIGGER: triggername = RPMTAG_FILETRIGGERNAME; triggerindex = RPMTAG_FILETRIGGERINDEX; triggerflags = RPMTAG_FILETRIGGERFLAGS; triggerversion = RPMTAG_FILETRIGGERVERSION; triggerscripts = RPMTAG_FILETRIGGERSCRIPTS; break; case TRANSFILETRIGGER: triggername = RPMTAG_TRANSFILETRIGGERNAME; triggerindex = RPMTAG_TRANSFILETRIGGERINDEX; triggerflags = RPMTAG_TRANSFILETRIGGERFLAGS; triggerversion = RPMTAG_TRANSFILETRIGGERVERSION; triggerscripts = RPMTAG_TRANSFILETRIGGERSCRIPTS; break; default: return 0; } if (!headerGet(h, triggername, &nametd, hgeflags)) { return 0; } headerGet(h, triggerindex, &indextd, hgeflags); headerGet(h, triggerflags, &flagtd, hgeflags); headerGet(h, triggerversion, &versiontd, hgeflags); headerGet(h, triggerscripts, &scripttd, hgeflags); td->type = RPM_STRING_ARRAY_TYPE; td->flags = RPMTD_ALLOCED | RPMTD_PTR_ALLOCED; td->data = conds = xmalloc(sizeof(*conds) * rpmtdCount(&scripttd)); td->count = rpmtdCount(&scripttd); indices = indextd.data; while ((i = rpmtdNext(&scripttd)) >= 0) { rpm_flag_t *flag; char *flagStr, *item; ARGV_t items = NULL; rpmtdInit(&nametd); rpmtdInit(&flagtd); rpmtdInit(&versiontd); while ((j = rpmtdNext(&nametd)) >= 0) { /* flag and version arrays match name array size always */ rpmtdNext(&flagtd); rpmtdNext(&versiontd); if (indices[j] != i) continue; flag = rpmtdGetUint32(&flagtd); if (flag && *flag & RPMSENSE_SENSEMASK) { flagStr = rpmtdFormat(&flagtd, RPMTD_FORMAT_DEPFLAGS, NULL); rasprintf(&item, "%s %s %s", rpmtdGetString(&nametd), flagStr, rpmtdGetString(&versiontd)); free(flagStr); } else { item = xstrdup(rpmtdGetString(&nametd)); } argvAdd(&items, item); free(item); } conds[i] = argvJoin(items, ", "); argvFree(items); } rpmtdFreeData(&nametd); rpmtdFreeData(&versiontd); rpmtdFreeData(&flagtd); rpmtdFreeData(&indextd); rpmtdFreeData(&scripttd); return 1; } static int triggercondsTag(Header h, rpmtd td, headerGetFlags hgflags) { return triggercondsTagFor(NORMALTRIGGER, h, td, hgflags); } static int filetriggercondsTag(Header h, rpmtd td, headerGetFlags hgflags) { return triggercondsTagFor(FILETRIGGER, h, td, hgflags); } static int transfiletriggercondsTag(Header h, rpmtd td, headerGetFlags hgflags) { return triggercondsTagFor(TRANSFILETRIGGER, h, td, hgflags); } /** * Retrieve trigger type info. * @param mode type of trigger (see tMode_e) * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int triggertypeTagFor(tMode mode, Header h, rpmtd td, headerGetFlags hgflags) { int i; char ** conds; struct rpmtd_s indices, flags, scripts; rpmTagVal triggerindex, triggerflags, triggerscripts; switch (mode) { case NORMALTRIGGER: triggerindex = RPMTAG_TRIGGERINDEX; triggerflags = RPMTAG_TRIGGERFLAGS; triggerscripts = RPMTAG_TRIGGERSCRIPTS; break; case FILETRIGGER: triggerindex = RPMTAG_FILETRIGGERINDEX; triggerflags = RPMTAG_FILETRIGGERFLAGS; triggerscripts = RPMTAG_FILETRIGGERSCRIPTS; break; case TRANSFILETRIGGER: triggerindex = RPMTAG_TRANSFILETRIGGERINDEX; triggerflags = RPMTAG_TRANSFILETRIGGERFLAGS; triggerscripts = RPMTAG_TRANSFILETRIGGERSCRIPTS; break; default: return 0; } if (!headerGet(h, triggerindex, &indices, HEADERGET_MINMEM)) { return 0; } headerGet(h, triggerflags, &flags, HEADERGET_MINMEM); headerGet(h, triggerscripts, &scripts, HEADERGET_MINMEM); td->flags = RPMTD_ALLOCED | RPMTD_PTR_ALLOCED; td->count = rpmtdCount(&scripts); td->data = conds = xmalloc(sizeof(*conds) * td->count); td->type = RPM_STRING_ARRAY_TYPE; while ((i = rpmtdNext(&scripts)) >= 0) { rpm_flag_t *flag; rpmtdInit(&indices); rpmtdInit(&flags); while (rpmtdNext(&indices) >= 0 && rpmtdNext(&flags) >= 0) { if (*rpmtdGetUint32(&indices) != i) continue; flag = rpmtdGetUint32(&flags); if (*flag & RPMSENSE_TRIGGERPREIN) conds[i] = xstrdup("prein"); else if (*flag & RPMSENSE_TRIGGERIN) conds[i] = xstrdup("in"); else if (*flag & RPMSENSE_TRIGGERUN) conds[i] = xstrdup("un"); else if (*flag & RPMSENSE_TRIGGERPOSTUN) conds[i] = xstrdup("postun"); else conds[i] = xstrdup(""); break; } } rpmtdFreeData(&indices); rpmtdFreeData(&flags); rpmtdFreeData(&scripts); return 1; } static int triggertypeTag(Header h, rpmtd td, headerGetFlags hgflags) { return triggertypeTagFor(NORMALTRIGGER, h, td, hgflags); } static int filetriggertypeTag(Header h, rpmtd td, headerGetFlags hgflags) { return triggertypeTagFor(FILETRIGGER, h, td, hgflags); } static int transfiletriggertypeTag(Header h, rpmtd td, headerGetFlags hgflags) { return triggertypeTagFor(TRANSFILETRIGGER, h, td, hgflags); } /** * Retrieve installed file paths. * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int instfilenamesTag(Header h, rpmtd td, headerGetFlags hgflags) { return fnTag(h, RPMTAG_BASENAMES, 1, td); } /** * Retrieve file paths. * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int filenamesTag(Header h, rpmtd td, headerGetFlags hgflags) { return fnTag(h, RPMTAG_BASENAMES, 0, td); } /** * Retrieve original file paths (wrt relocation). * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int origfilenamesTag(Header h, rpmtd td, headerGetFlags hgflags) { return fnTag(h, RPMTAG_ORIGBASENAMES, 0, td); } /* * Attempt to generate libmagic-style file class if missing from header: * we can easily generate this for symlinks and other special types. * Always return malloced strings to simplify life in fileclassTag(). */ static char *makeFClass(rpmfi fi) { char *fclass = NULL; const char *hc = rpmfiFClass(fi); if (hc != NULL && hc[0] != '\0') { fclass = xstrdup(hc); } else { switch (rpmfiFMode(fi) & S_IFMT) { case S_IFBLK: fclass = xstrdup("block special"); break; case S_IFCHR: fclass = xstrdup("character special"); break; case S_IFDIR: fclass = xstrdup("directory"); break; case S_IFIFO: fclass = xstrdup("fifo (named pipe)"); break; case S_IFSOCK: fclass = xstrdup("socket"); break; case S_IFLNK: fclass = rstrscat(NULL, "symbolic link to `", rpmfiFLink(fi), "'", NULL); break; } } return (fclass != NULL) ? fclass : xstrdup(""); } /** * Retrieve/generate file classes. * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int fileclassTag(Header h, rpmtd td, headerGetFlags hgflags) { rpmfi fi = rpmfiNew(NULL, h, RPMTAG_BASENAMES, RPMFI_NOHEADER); int numfiles = rpmfiFC(fi); if (numfiles > 0) { char **fclasses = xmalloc(numfiles * sizeof(*fclasses)); int ix; rpmfiInit(fi, 0); while ((ix = rpmfiNext(fi)) >= 0) { fclasses[ix] = makeFClass(fi); } td->data = fclasses; td->count = numfiles; td->flags = RPMTD_ALLOCED | RPMTD_PTR_ALLOCED; td->type = RPM_STRING_ARRAY_TYPE; } rpmfiFree(fi); return (numfiles > 0); } /** * Retrieve file provides. * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int fileprovideTag(Header h, rpmtd td, headerGetFlags hgflags) { return filedepTag(h, RPMTAG_PROVIDENAME, td, hgflags); } /** * Retrieve file requires. * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int filerequireTag(Header h, rpmtd td, headerGetFlags hgflags) { return filedepTag(h, RPMTAG_REQUIRENAME, td, hgflags); } /** * Retrieve i18n text. * @param h header * @param tag tag * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int i18nTag(Header h, rpmTag tag, rpmtd td, headerGetFlags hgflags) { int rc = headerGet(h, tag, td, HEADERGET_ALLOC); #if defined(ENABLE_NLS) if (rc) { static const char * const _macro_i18ndomains = "%{?_i18ndomains}"; char *de, *dstring = rpmExpand(_macro_i18ndomains, NULL); const char *domain; for (domain = dstring; domain != NULL; domain = de) { const char *msgid = td->data; const char *msg = NULL; de = strchr(domain, ':'); if (de) *de++ = '\0'; msg = dgettext(domain, td->data); if (msg != msgid) { free(td->data); td->data = xstrdup(msg); break; } } free(dstring); } #endif return rc; } /** * Retrieve summary text. * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int summaryTag(Header h, rpmtd td, headerGetFlags hgflags) { return i18nTag(h, RPMTAG_SUMMARY, td, hgflags); } /** * Retrieve description text. * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int descriptionTag(Header h, rpmtd td, headerGetFlags hgflags) { return i18nTag(h, RPMTAG_DESCRIPTION, td, hgflags); } /** * Retrieve group text. * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int groupTag(Header h, rpmtd td, headerGetFlags hgflags) { return i18nTag(h, RPMTAG_GROUP, td, hgflags); } /* * Helper to convert 32bit tag to 64bit version. * If header has new 64bit tag then just return the data, * otherwise convert 32bit old tag data to 64bit values. * For consistency, always return malloced data. */ static int get64(Header h, rpmtd td, rpmTag newtag, rpmTag oldtag) { int rc; if (headerIsEntry(h, newtag)) { rc = headerGet(h, newtag, td, HEADERGET_ALLOC); } else { struct rpmtd_s olddata; uint32_t *d32 = NULL; uint64_t *d64 = NULL; headerGet(h, oldtag, &olddata, HEADERGET_MINMEM); if (rpmtdType(&olddata) == RPM_INT32_TYPE) { td->type = RPM_INT64_TYPE; td->count = olddata.count; td->flags = RPMTD_ALLOCED; td->data = xmalloc(sizeof(*d64) * td->count); d64 = td->data; while ((d32 = rpmtdNextUint32(&olddata))) { *d64++ = *d32; } } rpmtdFreeData(&olddata); rc = d64 ? 1 : 0; } return rc; } /** * Retrieve file sizes as 64bit regardless of how they're stored. * @param h header * @retval td tag data container * @param hgflags header get flags * @return 1 on success */ static int longfilesizesTag(Header h, rpmtd td, headerGetFlags hgflags) { return get64(h, td, RPMTAG_LONGFILESIZES, RPMTAG_FILESIZES); } static int longarchivesizeTag(Header h, rpmtd td, headerGetFlags hgflags) { return get64(h, td, RPMTAG_LONGARCHIVESIZE, RPMTAG_ARCHIVESIZE); } static int longsizeTag(Header h, rpmtd td, headerGetFlags hgflags) { return get64(h, td, RPMTAG_LONGSIZE, RPMTAG_SIZE); } static int longsigsizeTag(Header h, rpmtd td, headerGetFlags hgflags) { return get64(h, td, RPMTAG_LONGSIGSIZE, RPMTAG_SIGSIZE); } static int numberTag(rpmtd td, uint32_t val) { uint32_t *tval = xmalloc(sizeof(*tval)); tval[0] = val; td->type = RPM_INT32_TYPE; td->count = 1; td->data = tval; td->flags = RPMTD_ALLOCED; return 1; /* this cannot fail */ } static int dbinstanceTag(Header h, rpmtd td, headerGetFlags hgflags) { return numberTag(td, headerGetInstance(h)); } static int headercolorTag(Header h, rpmtd td, headerGetFlags hgflags) { rpm_color_t *fcolor, hcolor = 0; struct rpmtd_s fcolors; headerGet(h, RPMTAG_FILECOLORS, &fcolors, HEADERGET_MINMEM); while ((fcolor = rpmtdNextUint32(&fcolors)) != NULL) { hcolor |= *fcolor; } rpmtdFreeData(&fcolors); hcolor &= 0x0f; return numberTag(td, hcolor); } enum nevraFlags_e { NEVRA_NAME = (1 << 0), NEVRA_EPOCH = (1 << 1), NEVRA_VERSION = (1 << 2), NEVRA_RELEASE = (1 << 3), NEVRA_ARCH = (1 << 4) }; typedef rpmFlags nevraFlags; static int getNEVRA(Header h, rpmtd td, nevraFlags flags) { const char *val = NULL; char *res = xstrdup(""); if ((flags & NEVRA_NAME)) { val = headerGetString(h, RPMTAG_NAME); if (val) rstrscat(&res, val, "-", NULL); } if ((flags & NEVRA_EPOCH)) { char *e = headerGetAsString(h, RPMTAG_EPOCH); if (e) rstrscat(&res, e, ":", NULL); free(e); } if ((flags & NEVRA_VERSION)) { val = headerGetString(h, RPMTAG_VERSION); if (val) rstrscat(&res, val, "-", NULL); } if ((flags & NEVRA_RELEASE)) { val = headerGetString(h, RPMTAG_RELEASE); if (val) rstrscat(&res, val, NULL); } if ((flags & NEVRA_ARCH)) { val = headerGetString(h, RPMTAG_ARCH); if (headerIsSource(h) && val == NULL) val = "src"; if (val) rstrscat(&res, ".", val, NULL); } td->type = RPM_STRING_TYPE; td->data = res; td->count = 1; td->flags = RPMTD_ALLOCED; return 1; } static int evrTag(Header h, rpmtd td, headerGetFlags hgflags) { return getNEVRA(h, td, NEVRA_EPOCH|NEVRA_VERSION|NEVRA_RELEASE); } static int nvrTag(Header h, rpmtd td, headerGetFlags hgflags) { return getNEVRA(h, td, NEVRA_NAME|NEVRA_VERSION|NEVRA_RELEASE); } static int nvraTag(Header h, rpmtd td, headerGetFlags hgflags) { return getNEVRA(h, td, NEVRA_NAME|NEVRA_VERSION|NEVRA_RELEASE|NEVRA_ARCH); } static int nevrTag(Header h, rpmtd td, headerGetFlags hgflags) { return getNEVRA(h, td, NEVRA_NAME|NEVRA_EPOCH|NEVRA_VERSION|NEVRA_RELEASE); } static int nevraTag(Header h, rpmtd td, headerGetFlags hgflags) { return getNEVRA(h, td, NEVRA_NAME|NEVRA_EPOCH|NEVRA_VERSION|NEVRA_RELEASE|NEVRA_ARCH); } static int verboseTag(Header h, rpmtd td, headerGetFlags hgflags) { if (rpmIsVerbose()) { td->type = RPM_INT32_TYPE; td->count = 1; td->data = &(td->count); td->flags = RPMTD_NONE; return 1; } else { return 0; } } static int epochnumTag(Header h, rpmtd td, headerGetFlags hgflags) { /* For consistency, always return malloced data */ if (!headerGet(h, RPMTAG_EPOCH, td, HEADERGET_ALLOC)) { uint32_t *e = malloc(sizeof(*e)); *e = 0; td->data = e; td->type = RPM_INT32_TYPE; td->count = 1; td->flags = RPMTD_ALLOCED; } td->tag = RPMTAG_EPOCHNUM; return 1; } static int depnevrsTag(Header h, rpmtd td, headerGetFlags hgflags, rpmTagVal tag) { rpmds ds = rpmdsNew(h, tag, 0); int ndeps = rpmdsCount(ds); if (ndeps > 0) { char **deps = xmalloc(sizeof(*deps) * ndeps); int i; while ((i = rpmdsNext(ds)) >= 0) { deps[i] = rpmdsNewDNEVR(NULL, ds); } td->data = deps; td->type = RPM_STRING_ARRAY_TYPE; td->count = ndeps; td->flags |= (RPMTD_ALLOCED | RPMTD_PTR_ALLOCED); } rpmdsFree(ds); return (ndeps > 0); } #define RPMSENSE_STRONG (1 << 27) static int depnevrsTagFiltered(Header h, rpmtd td, headerGetFlags hgflags, rpmTagVal tag, int strong) { rpmds ds = rpmdsNew(h, tag, 0); int ndeps = rpmdsCount(ds); if (ndeps > 0) { char **deps = xmalloc(sizeof(*deps) * ndeps); ndeps = 0; while (rpmdsNext(ds) >= 0) { if ((rpmdsFlags(ds) & RPMSENSE_STRONG) == (strong ? RPMSENSE_STRONG : 0)) deps[ndeps++] = rpmdsNewDNEVR(NULL, ds); } if (ndeps) { td->data = deps; td->type = RPM_STRING_ARRAY_TYPE; td->count = ndeps; td->flags |= (RPMTD_ALLOCED | RPMTD_PTR_ALLOCED); } else { _free(deps); } } rpmdsFree(ds); return (ndeps > 0); } static int requirenevrsTag(Header h, rpmtd td, headerGetFlags hgflags) { return depnevrsTag(h, td, hgflags, RPMTAG_REQUIRENAME); } static int recommendnevrsTag(Header h, rpmtd td, headerGetFlags hgflags) { return depnevrsTag(h, td, hgflags, RPMTAG_RECOMMENDNAME) || depnevrsTagFiltered(h, td, hgflags, RPMTAG_OLDSUGGESTSNAME, 1); } static int suggestnevrsTag(Header h, rpmtd td, headerGetFlags hgflags) { return depnevrsTag(h, td, hgflags, RPMTAG_SUGGESTNAME) || depnevrsTagFiltered(h, td, hgflags, RPMTAG_OLDSUGGESTSNAME, 0); } static int supplementnevrsTag(Header h, rpmtd td, headerGetFlags hgflags) { return depnevrsTag(h, td, hgflags, RPMTAG_SUPPLEMENTNAME) || depnevrsTagFiltered(h, td, hgflags, RPMTAG_OLDENHANCESNAME, 1); } static int enhancenevrsTag(Header h, rpmtd td, headerGetFlags hgflags) { return depnevrsTag(h, td, hgflags, RPMTAG_ENHANCENAME) || depnevrsTagFiltered(h, td, hgflags, RPMTAG_OLDENHANCESNAME, 0); } static int providenevrsTag(Header h, rpmtd td, headerGetFlags hgflags) { return depnevrsTag(h, td, hgflags, RPMTAG_PROVIDENAME); } static int obsoletenevrsTag(Header h, rpmtd td, headerGetFlags hgflags) { return depnevrsTag(h, td, hgflags, RPMTAG_OBSOLETENAME); } static int conflictnevrsTag(Header h, rpmtd td, headerGetFlags hgflags) { return depnevrsTag(h, td, hgflags, RPMTAG_CONFLICTNAME); } static int filenlinksTag(Header h, rpmtd td, headerGetFlags hgflags) { rpmfi fi = rpmfiNew(NULL, h, RPMTAG_BASENAMES, RPMFI_NOHEADER); rpm_count_t fc = rpmfiFC(fi); if (fc > 0) { uint32_t *nlinks = xmalloc(fc * sizeof(*nlinks)); int ix; while ((ix = rpmfiNext(fi)) >= 0) { nlinks[ix] = rpmfiFNlink(fi); } td->data = nlinks; td->type = RPM_INT32_TYPE; td->count = fc; td->flags = RPMTD_ALLOCED; } rpmfiFree(fi); return (fc > 0); } static const struct headerTagFunc_s rpmHeaderTagExtensions[] = { { RPMTAG_GROUP, groupTag }, { RPMTAG_DESCRIPTION, descriptionTag }, { RPMTAG_SUMMARY, summaryTag }, { RPMTAG_FILECLASS, fileclassTag }, { RPMTAG_FILENAMES, filenamesTag }, { RPMTAG_ORIGFILENAMES, origfilenamesTag }, { RPMTAG_FILEPROVIDE, fileprovideTag }, { RPMTAG_FILEREQUIRE, filerequireTag }, { RPMTAG_TRIGGERCONDS, triggercondsTag }, { RPMTAG_FILETRIGGERCONDS, filetriggercondsTag }, { RPMTAG_TRANSFILETRIGGERCONDS, transfiletriggercondsTag }, { RPMTAG_TRIGGERTYPE, triggertypeTag }, { RPMTAG_FILETRIGGERTYPE, filetriggertypeTag }, { RPMTAG_TRANSFILETRIGGERTYPE, transfiletriggertypeTag }, { RPMTAG_LONGFILESIZES, longfilesizesTag }, { RPMTAG_LONGARCHIVESIZE, longarchivesizeTag }, { RPMTAG_LONGSIZE, longsizeTag }, { RPMTAG_LONGSIGSIZE, longsigsizeTag }, { RPMTAG_DBINSTANCE, dbinstanceTag }, { RPMTAG_EVR, evrTag }, { RPMTAG_NVR, nvrTag }, { RPMTAG_NEVR, nevrTag }, { RPMTAG_NVRA, nvraTag }, { RPMTAG_NEVRA, nevraTag }, { RPMTAG_HEADERCOLOR, headercolorTag }, { RPMTAG_VERBOSE, verboseTag }, { RPMTAG_EPOCHNUM, epochnumTag }, { RPMTAG_INSTFILENAMES, instfilenamesTag }, { RPMTAG_REQUIRENEVRS, requirenevrsTag }, { RPMTAG_RECOMMENDNEVRS, recommendnevrsTag}, { RPMTAG_SUGGESTNEVRS, suggestnevrsTag}, { RPMTAG_SUPPLEMENTNEVRS, supplementnevrsTag}, { RPMTAG_ENHANCENEVRS, enhancenevrsTag}, { RPMTAG_PROVIDENEVRS, providenevrsTag }, { RPMTAG_OBSOLETENEVRS, obsoletenevrsTag }, { RPMTAG_CONFLICTNEVRS, conflictnevrsTag }, { RPMTAG_FILENLINKS, filenlinksTag }, { 0, NULL } }; headerTagTagFunction rpmHeaderTagFunc(rpmTagVal tag) { const struct headerTagFunc_s * ext; headerTagTagFunction func = NULL; for (ext = rpmHeaderTagExtensions; ext->func != NULL; ext++) { if (ext->tag == tag) { func = ext->func; break; } } return func; }