SmartCardMonitoringThread::SmartCardMonitoringThread(SECMODModule *module_)
: mThread(nsnull)
{
mModule = SECMOD_ReferenceModule(module_);
// simple hash functions, most modules have less than 3 slots, so 10 buckets
// should be plenty
mHash = PL_NewHashTable(10, unity, PL_CompareValues,
PL_CompareStrings, nsnull, 0);
}
static void
RecreateBloatView()
{
gBloatView = PL_NewHashTable(256,
PL_HashString,
PL_CompareStrings,
PL_CompareValues,
&bloatViewHashAllocOps, nullptr);
}
// static
nsresult
nsHTMLTags::AddRefTable(void)
{
if (gTableRefCount++ == 0) {
NS_ASSERTION(!gTagTable, "pre existing hash!");
gTagTable = PL_NewHashTable(64, HTMLTagsHashCodeUCPtr,
HTMLTagsKeyCompareUCPtr, PL_CompareValues,
nsnull, nsnull);
NS_ENSURE_TRUE(gTagTable, NS_ERROR_OUT_OF_MEMORY);
// Fill in gTagTable with the above static PRUnichar strings as
// keys and the value of the corresponding enum as the value in
// the table.
PRInt32 i;
for (i = 0; i < NS_HTML_TAG_MAX; ++i) {
PRUint32 len = nsCRT::strlen(kTagUnicodeTable[i]);
PL_HashTableAdd(gTagTable, kTagUnicodeTable[i],
NS_INT32_TO_PTR(i + 1));
if (len > sMaxTagNameLength) {
sMaxTagNameLength = len;
}
}
//NS_ASSERTION(sMaxTagNameLength == NS_HTMLTAG_NAME_MAX_LENGTH,
// "NS_HTMLTAG_NAME_MAX_LENGTH not set correctly!");
// Fill in our static atom pointers
NS_RegisterStaticAtoms(kTagAtoms_info, NS_ARRAY_LENGTH(kTagAtoms_info));
#ifdef DEBUG
{
// let's verify that all names in the the table are lowercase...
for (i = 0; i < NS_HTML_TAG_MAX; ++i) {
nsCAutoString temp1(kTagAtoms_info[i].mString);
nsCAutoString temp2(kTagAtoms_info[i].mString);
ToLowerCase(temp1);
NS_ASSERTION(temp1.Equals(temp2), "upper case char in table");
}
// let's verify that all names in the unicode strings above are
// correct.
for (i = 0; i < NS_HTML_TAG_MAX; ++i) {
nsAutoString temp1(kTagUnicodeTable[i]);
nsAutoString temp2; temp2.AssignWithConversion(kTagAtoms_info[i].mString);
NS_ASSERTION(temp1.Equals(temp2), "Bad unicode tag name!");
}
}
#endif
}
return NS_OK;
}
/*
* nssHash_create
*
*/
NSS_IMPLEMENT nssHash *
nssHash_Create
(
NSSArena *arenaOpt,
PRUint32 numBuckets,
PLHashFunction keyHash,
PLHashComparator keyCompare,
PLHashComparator valueCompare
)
{
nssHash *rv;
NSSArena *arena;
PRBool i_alloced;
#ifdef NSSDEBUG
if( arenaOpt && PR_SUCCESS != nssArena_verifyPointer(arenaOpt) ) {
nss_SetError(NSS_ERROR_INVALID_POINTER);
return (nssHash *)NULL;
}
#endif /* NSSDEBUG */
if (arenaOpt) {
arena = arenaOpt;
i_alloced = PR_FALSE;
} else {
arena = nssArena_Create();
i_alloced = PR_TRUE;
}
rv = nss_ZNEW(arena, nssHash);
if( (nssHash *)NULL == rv ) {
goto loser;
}
rv->mutex = PZ_NewLock(nssILockOther);
if( (PZLock *)NULL == rv->mutex ) {
goto loser;
}
rv->plHashTable = PL_NewHashTable(numBuckets,
keyHash, keyCompare, valueCompare,
&nssArenaHashAllocOps, arena);
if( (PLHashTable *)NULL == rv->plHashTable ) {
(void)PZ_DestroyLock(rv->mutex);
goto loser;
}
rv->count = 0;
rv->arena = arena;
rv->i_alloced_arena = i_alloced;
return rv;
loser:
(void)nss_ZFreeIf(rv);
return (nssHash *)NULL;
}
// Must be single-threaded here, early in primordial thread.
static void InitAutoLockStatics()
{
(void) PR_NewThreadPrivateIndex(&LockStackTPI, 0);
OrderTable = PL_NewHashTable(64, _hash_pointer,
PL_CompareValues, PL_CompareValues,
&_hash_alloc_ops, 0);
if (OrderTable && !(OrderTableLock = PR_NewLock())) {
PL_HashTableDestroy(OrderTable);
OrderTable = 0;
}
PR_CSetOnMonitorRecycle(OnSemaphoreRecycle);
}
/*
* nssCKFWHash_Create
*
*/
NSS_IMPLEMENT nssCKFWHash *
nssCKFWHash_Create
(
NSSCKFWInstance *fwInstance,
NSSArena *arena,
CK_RV *pError
)
{
nssCKFWHash *rv;
#ifdef NSSDEBUG
if (!pError) {
return (nssCKFWHash *)NULL;
}
if( PR_SUCCESS != nssArena_verifyPointer(arena) ) {
*pError = CKR_ARGUMENTS_BAD;
return (nssCKFWHash *)NULL;
}
#endif /* NSSDEBUG */
rv = nss_ZNEW(arena, nssCKFWHash);
if (!rv) {
*pError = CKR_HOST_MEMORY;
return (nssCKFWHash *)NULL;
}
rv->mutex = nssCKFWInstance_CreateMutex(fwInstance, arena, pError);
if (!rv->mutex) {
if( CKR_OK == *pError ) {
(void)nss_ZFreeIf(rv);
*pError = CKR_GENERAL_ERROR;
}
return (nssCKFWHash *)NULL;
}
rv->plHashTable = PL_NewHashTable(0, nss_ckfw_identity_hash,
PL_CompareValues, PL_CompareValues, &nssArenaHashAllocOps, arena);
if (!rv->plHashTable) {
(void)nssCKFWMutex_Destroy(rv->mutex);
(void)nss_ZFreeIf(rv);
*pError = CKR_HOST_MEMORY;
return (nssCKFWHash *)NULL;
}
rv->count = 0;
return rv;
}
nsresult
nsHttpAuthCache::Init()
{
NS_ENSURE_TRUE(!mDB, NS_ERROR_ALREADY_INITIALIZED);
LOG(("nsHttpAuthCache::Init\n"));
mDB = PL_NewHashTable(128, (PLHashFunction) PL_HashString,
(PLHashComparator) PL_CompareStrings,
(PLHashComparator) 0, &gHashAllocOps, this);
if (!mDB)
return NS_ERROR_OUT_OF_MEMORY;
return NS_OK;
}
tmreader *tmreader_new(const char *program, void *data)
{
tmreader *tmr;
tmr = calloc(1, sizeof *tmr);
if (!tmr)
return NULL;
tmr->program = program;
tmr->data = data;
PL_INIT_ARENA_POOL(&tmr->arena, "TMReader", 256*1024);
tmr->libraries = PL_NewHashTable(100, hash_serial, PL_CompareValues,
PL_CompareStrings, &graphnode_hashallocops,
&tmr->arena);
tmr->filenames = PL_NewHashTable(100, hash_serial, PL_CompareValues,
PL_CompareStrings, &filename_hashallocops,
&tmr->arena);
tmr->components = PL_NewHashTable(10000, PL_HashString, PL_CompareStrings,
PL_CompareValues, &component_hashallocops,
&tmr->arena);
tmr->methods = PL_NewHashTable(10000, hash_serial, PL_CompareValues,
PL_CompareStrings, &method_hashallocops,
&tmr->arena);
tmr->callsites = PL_NewHashTable(200000, hash_serial, PL_CompareValues,
PL_CompareValues, &callsite_hashallocops,
&tmr->arena);
tmr->calltree_root.entry.value = (void*) strdup("root");
if (!tmr->libraries || !tmr->components || !tmr->methods ||
!tmr->callsites || !tmr->calltree_root.entry.value ||
!tmr->filenames) {
tmreader_destroy(tmr);
return NULL;
}
return tmr;
}
/** **************************************************************************
* Internal initialization. Always called, from lib/httpdaemon/WebServer.cpp
*
*/
void reqlimit_init_crits()
{
reqlimit_crit = crit_init();
anon_bucket.count = 0;
anon_bucket.time = time(NULL);
anon_bucket.state = REQ_NOACTION;
anon_bucket.conc = 0;
hashtable = PL_NewHashTable(0, PL_HashString, PL_CompareStrings,
PL_CompareValues, NULL, NULL);
next_timeout = time(NULL) + purge_timeout;
// Initializes a "slot" for our reqlimit_conc_done() function. See
// call to request_set_data() in check_request_limits() for more.
req_cleanup = request_alloc_slot(&reqlimit_conc_done);
assert(req_cleanup != -1);
}
nsTopProgressManager::nsTopProgressManager(MWContext* context)
: nsProgressManager(context),
fActualStart(PR_Now()),
fProgressBarStart(PR_Now()),
fDefaultStatus(NULL)
{
fURLs = PL_NewHashTable(OBJECT_TABLE_INIT_SIZE,
pm_HashURL,
pm_CompareURLs,
PL_CompareValues,
&AllocOps,
NULL);
// Start the progress manager
fTimeout = FE_SetTimeout(nsTopProgressManager::TimeoutCallback, (void*) this, 500);
PR_ASSERT(fTimeout);
// to avoid "strobe" mode...
fProgress = 1;
FE_SetProgressBarPercent(fContext, fProgress);
}
ReplicaUpdateDNList
replica_groupdn_list_new(const Slapi_ValueSet *vs)
{
PLHashTable *hash;
if (vs == NULL) {
return NULL;
}
/* allocate table */
hash = PL_NewHashTable(4, PL_HashString, PL_CompareStrings,
updatedn_compare_dns, NULL, NULL);
if (hash == NULL) {
slapi_log_err(SLAPI_LOG_ERR, repl_plugin_name, "replica_new_updatedn_list - "
"Failed to allocate hash table; NSPR error - %d\n",
PR_GetError ());
return NULL;
}
replica_updatedn_list_delete(hash, NULL); /* delete all values */
replica_updatedn_list_add_ext(hash, vs, 1);
return (ReplicaUpdateDNList)hash;
}
nsNodeInfoManager::nsNodeInfoManager()
: mDocument(nsnull),
mPrincipal(nsnull),
mTextNodeInfo(nsnull),
mCommentNodeInfo(nsnull),
mDocumentNodeInfo(nsnull),
mBindingManager(nsnull)
{
nsLayoutStatics::AddRef();
#ifdef PR_LOGGING
if (!gNodeInfoManagerLeakPRLog)
gNodeInfoManagerLeakPRLog = PR_NewLogModule("NodeInfoManagerLeak");
if (gNodeInfoManagerLeakPRLog)
PR_LOG(gNodeInfoManagerLeakPRLog, PR_LOG_DEBUG,
("NODEINFOMANAGER %p created", this));
#endif
mNodeInfoHash = PL_NewHashTable(32, GetNodeInfoInnerHashValue,
NodeInfoInnerKeyCompare,
PL_CompareValues, nsnull, nsnull);
}
static void InitTraceLog(void)
{
if (gInitialized) return;
gInitialized = true;
bool defined;
defined = InitLog("XPCOM_MEM_BLOAT_LOG", "bloat/leaks", &gBloatLog);
if (!defined)
gLogLeaksOnly = InitLog("XPCOM_MEM_LEAK_LOG", "leaks", &gBloatLog);
if (defined || gLogLeaksOnly) {
RecreateBloatView();
if (!gBloatView) {
NS_WARNING("out of memory");
gBloatLog = nullptr;
gLogLeaksOnly = false;
}
}
(void)InitLog("XPCOM_MEM_REFCNT_LOG", "refcounts", &gRefcntsLog);
(void)InitLog("XPCOM_MEM_ALLOC_LOG", "new/delete", &gAllocLog);
defined = InitLog("XPCOM_MEM_LEAKY_LOG", "for leaky", &gLeakyLog);
if (defined) {
gLogToLeaky = true;
PRFuncPtr p = nullptr, q = nullptr;
#ifdef HAVE_DLOPEN
{
PRLibrary *lib = nullptr;
p = PR_FindFunctionSymbolAndLibrary("__log_addref", &lib);
if (lib) {
PR_UnloadLibrary(lib);
lib = nullptr;
}
q = PR_FindFunctionSymbolAndLibrary("__log_release", &lib);
if (lib) {
PR_UnloadLibrary(lib);
}
}
#endif
if (p && q) {
leakyLogAddRef = (void (*)(void*,int,int)) p;
leakyLogRelease = (void (*)(void*,int,int)) q;
}
else {
gLogToLeaky = false;
fprintf(stdout, "### ERROR: XPCOM_MEM_LEAKY_LOG defined, but can't locate __log_addref and __log_release symbols\n");
fflush(stdout);
}
}
const char* classes = getenv("XPCOM_MEM_LOG_CLASSES");
#ifdef HAVE_CPP_DYNAMIC_CAST_TO_VOID_PTR
if (classes) {
(void)InitLog("XPCOM_MEM_COMPTR_LOG", "nsCOMPtr", &gCOMPtrLog);
} else {
if (getenv("XPCOM_MEM_COMPTR_LOG")) {
fprintf(stdout, "### XPCOM_MEM_COMPTR_LOG defined -- but XPCOM_MEM_LOG_CLASSES is not defined\n");
}
}
#else
const char* comptr_log = getenv("XPCOM_MEM_COMPTR_LOG");
if (comptr_log) {
fprintf(stdout, "### XPCOM_MEM_COMPTR_LOG defined -- but it will not work without dynamic_cast\n");
}
#endif
if (classes) {
// if XPCOM_MEM_LOG_CLASSES was set to some value, the value is interpreted
// as a list of class names to track
gTypesToLog = PL_NewHashTable(256,
PL_HashString,
PL_CompareStrings,
PL_CompareValues,
&typesToLogHashAllocOps, NULL);
if (!gTypesToLog) {
NS_WARNING("out of memory");
fprintf(stdout, "### XPCOM_MEM_LOG_CLASSES defined -- unable to log specific classes\n");
}
else {
fprintf(stdout, "### XPCOM_MEM_LOG_CLASSES defined -- only logging these classes: ");
const char* cp = classes;
for (;;) {
char* cm = (char*) strchr(cp, ',');
if (cm) {
*cm = '\0';
}
PL_HashTableAdd(gTypesToLog, nsCRT::strdup(cp), (void*)1);
fprintf(stdout, "%s ", cp);
if (!cm) break;
*cm = ',';
cp = cm + 1;
}
fprintf(stdout, "\n");
}
gSerialNumbers = PL_NewHashTable(256,
HashNumber,
PL_CompareValues,
PL_CompareValues,
&serialNumberHashAllocOps, NULL);
}
const char* objects = getenv("XPCOM_MEM_LOG_OBJECTS");
if (objects) {
gObjectsToLog = PL_NewHashTable(256,
HashNumber,
PL_CompareValues,
PL_CompareValues,
NULL, NULL);
if (!gObjectsToLog) {
NS_WARNING("out of memory");
fprintf(stdout, "### XPCOM_MEM_LOG_OBJECTS defined -- unable to log specific objects\n");
}
else if (! (gRefcntsLog || gAllocLog || gCOMPtrLog)) {
fprintf(stdout, "### XPCOM_MEM_LOG_OBJECTS defined -- but none of XPCOM_MEM_(REFCNT|ALLOC|COMPTR)_LOG is defined\n");
}
else {
fprintf(stdout, "### XPCOM_MEM_LOG_OBJECTS defined -- only logging these objects: ");
const char* cp = objects;
for (;;) {
char* cm = (char*) strchr(cp, ',');
if (cm) {
*cm = '\0';
}
intptr_t top = 0;
intptr_t bottom = 0;
while (*cp) {
if (*cp == '-') {
bottom = top;
top = 0;
++cp;
}
top *= 10;
top += *cp - '0';
++cp;
}
if (!bottom) {
bottom = top;
}
for (intptr_t serialno = bottom; serialno <= top; serialno++) {
PL_HashTableAdd(gObjectsToLog, (const void*)serialno, (void*)1);
fprintf(stdout, "%ld ", serialno);
}
if (!cm) break;
*cm = ',';
cp = cm + 1;
}
fprintf(stdout, "\n");
}
}
if (gBloatLog || gRefcntsLog || gAllocLog || gLeakyLog || gCOMPtrLog) {
gLogging = true;
}
gTraceLock = PR_NewLock();
}
static void
InitTraceLog()
{
if (gInitialized) {
return;
}
gInitialized = true;
bool defined = InitLog("XPCOM_MEM_BLOAT_LOG", "bloat/leaks", &gBloatLog);
if (!defined) {
gLogLeaksOnly = InitLog("XPCOM_MEM_LEAK_LOG", "leaks", &gBloatLog);
}
if (defined || gLogLeaksOnly) {
RecreateBloatView();
if (!gBloatView) {
NS_WARNING("out of memory");
maybeUnregisterAndCloseFile(gBloatLog);
gLogLeaksOnly = false;
}
}
InitLog("XPCOM_MEM_REFCNT_LOG", "refcounts", &gRefcntsLog);
InitLog("XPCOM_MEM_ALLOC_LOG", "new/delete", &gAllocLog);
const char* classes = getenv("XPCOM_MEM_LOG_CLASSES");
#ifdef HAVE_CPP_DYNAMIC_CAST_TO_VOID_PTR
if (classes) {
InitLog("XPCOM_MEM_COMPTR_LOG", "nsCOMPtr", &gCOMPtrLog);
} else {
if (getenv("XPCOM_MEM_COMPTR_LOG")) {
fprintf(stdout, "### XPCOM_MEM_COMPTR_LOG defined -- but XPCOM_MEM_LOG_CLASSES is not defined\n");
}
}
#else
const char* comptr_log = getenv("XPCOM_MEM_COMPTR_LOG");
if (comptr_log) {
fprintf(stdout, "### XPCOM_MEM_COMPTR_LOG defined -- but it will not work without dynamic_cast\n");
}
#endif
if (classes) {
// if XPCOM_MEM_LOG_CLASSES was set to some value, the value is interpreted
// as a list of class names to track
gTypesToLog = PL_NewHashTable(256,
PL_HashString,
PL_CompareStrings,
PL_CompareValues,
&typesToLogHashAllocOps, nullptr);
if (!gTypesToLog) {
NS_WARNING("out of memory");
fprintf(stdout, "### XPCOM_MEM_LOG_CLASSES defined -- unable to log specific classes\n");
} else {
fprintf(stdout, "### XPCOM_MEM_LOG_CLASSES defined -- only logging these classes: ");
const char* cp = classes;
for (;;) {
char* cm = (char*)strchr(cp, ',');
if (cm) {
*cm = '\0';
}
PL_HashTableAdd(gTypesToLog, strdup(cp), (void*)1);
fprintf(stdout, "%s ", cp);
if (!cm) {
break;
}
*cm = ',';
cp = cm + 1;
}
fprintf(stdout, "\n");
}
gSerialNumbers = PL_NewHashTable(256,
HashNumber,
PL_CompareValues,
PL_CompareValues,
&serialNumberHashAllocOps, nullptr);
}
const char* objects = getenv("XPCOM_MEM_LOG_OBJECTS");
if (objects) {
gObjectsToLog = PL_NewHashTable(256,
HashNumber,
PL_CompareValues,
PL_CompareValues,
nullptr, nullptr);
if (!gObjectsToLog) {
NS_WARNING("out of memory");
fprintf(stdout, "### XPCOM_MEM_LOG_OBJECTS defined -- unable to log specific objects\n");
} else if (!(gRefcntsLog || gAllocLog || gCOMPtrLog)) {
fprintf(stdout, "### XPCOM_MEM_LOG_OBJECTS defined -- but none of XPCOM_MEM_(REFCNT|ALLOC|COMPTR)_LOG is defined\n");
} else {
fprintf(stdout, "### XPCOM_MEM_LOG_OBJECTS defined -- only logging these objects: ");
const char* cp = objects;
for (;;) {
char* cm = (char*)strchr(cp, ',');
if (cm) {
*cm = '\0';
}
intptr_t top = 0;
intptr_t bottom = 0;
while (*cp) {
if (*cp == '-') {
bottom = top;
top = 0;
++cp;
}
top *= 10;
top += *cp - '0';
++cp;
}
if (!bottom) {
bottom = top;
}
for (intptr_t serialno = bottom; serialno <= top; serialno++) {
PL_HashTableAdd(gObjectsToLog, (const void*)serialno, (void*)1);
fprintf(stdout, "%" PRIdPTR " ", serialno);
}
if (!cm) {
break;
}
*cm = ',';
cp = cm + 1;
}
fprintf(stdout, "\n");
}
}
if (gBloatLog) {
gLogging = OnlyBloatLogging;
}
if (gRefcntsLog || gAllocLog || gCOMPtrLog) {
gLogging = FullLogging;
}
gTraceLock = PR_NewLock();
}
/*********************************************************************
*
* m a i n
*/
int
main(int argc, char *argv[])
{
PRBool readOnly;
int retval = 0;
outputFD = PR_STDOUT;
errorFD = PR_STDERR;
progName = argv[0];
if (argc < 2) {
Usage();
}
excludeDirs = PL_NewHashTable(10, PL_HashString, PL_CompareStrings,
PL_CompareStrings, NULL, NULL);
extensions = PL_NewHashTable(10, PL_HashString, PL_CompareStrings,
PL_CompareStrings, NULL, NULL);
if (parse_args(argc, argv)) {
retval = -1;
goto cleanup;
}
/* Parse the command file if one was given */
if (cmdFile) {
if (ProcessCommandFile()) {
retval = -1;
goto cleanup;
}
}
/* Set up output redirection */
if (outfile) {
if (PR_Access(outfile, PR_ACCESS_EXISTS) == PR_SUCCESS) {
/* delete the file if it is already present */
PR_fprintf(errorFD,
"warning: %s already exists and will be overwritten.\n",
outfile);
warningCount++;
if (PR_Delete(outfile) != PR_SUCCESS) {
PR_fprintf(errorFD, "ERROR: unable to delete %s.\n", outfile);
errorCount++;
exit(ERRX);
}
}
outputFD = PR_Open(outfile,
PR_WRONLY |
PR_CREATE_FILE | PR_TRUNCATE,
0777);
if (!outputFD) {
PR_fprintf(errorFD, "ERROR: Unable to create %s.\n",
outfile);
errorCount++;
exit(ERRX);
}
errorFD = outputFD;
}
/* This seems to be a fairly common user error */
if (verify && list_certs > 0) {
PR_fprintf(errorFD, "%s: Can't use -l and -v at the same time\n",
PROGRAM_NAME);
errorCount++;
retval = -1;
goto cleanup;
}
/* -J assumes -Z now */
if (javascript && zipfile) {
PR_fprintf(errorFD, "%s: Can't use -J and -Z at the same time\n",
PROGRAM_NAME);
PR_fprintf(errorFD, "%s: -J option will create the jar files for you\n",
PROGRAM_NAME);
errorCount++;
retval = -1;
goto cleanup;
}
/* -X needs -Z */
if (xpi_arc && !zipfile) {
PR_fprintf(errorFD, "%s: option XPI (-X) requires option jarfile (-Z)\n",
PROGRAM_NAME);
errorCount++;
retval = -1;
goto cleanup;
}
/* Less common mixing of -L with various options */
if (list_certs > 0 &&
(tell_who || zipfile || javascript ||
scriptdir || extensionsGiven || exclusionsGiven || install_script)) {
PR_fprintf(errorFD, "%s: Can't use -l or -L with that option\n",
PROGRAM_NAME);
errorCount++;
retval = -1;
goto cleanup;
}
if (!cert_dir)
cert_dir = get_default_cert_dir();
VerifyCertDir(cert_dir, keyName);
if (compression_level < MIN_COMPRESSION_LEVEL ||
compression_level > MAX_COMPRESSION_LEVEL) {
PR_fprintf(errorFD, "Compression level must be between %d and %d.\n",
MIN_COMPRESSION_LEVEL, MAX_COMPRESSION_LEVEL);
errorCount++;
retval = -1;
goto cleanup;
}
if (jartree && !keyName) {
PR_fprintf(errorFD, "You must specify a key with which to sign.\n");
errorCount++;
retval = -1;
goto cleanup;
}
readOnly = (genkey == NULL); /* only key generation requires write */
if (InitCrypto(cert_dir, readOnly)) {
PR_fprintf(errorFD, "ERROR: Cryptographic initialization failed.\n");
errorCount++;
retval = -1;
goto cleanup;
}
if (enableOCSP) {
SECStatus rv = CERT_EnableOCSPChecking(CERT_GetDefaultCertDB());
if (rv != SECSuccess) {
PR_fprintf(errorFD, "ERROR: Attempt to enable OCSP Checking failed.\n");
errorCount++;
retval = -1;
}
}
if (verify) {
if (VerifyJar(verify)) {
errorCount++;
retval = -1;
goto cleanup;
}
} else if (list_certs) {
if (ListCerts(keyName, list_certs)) {
errorCount++;
retval = -1;
goto cleanup;
}
} else if (list_modules) {
JarListModules();
} else if (genkey) {
if (GenerateCert(genkey, keySize, token)) {
errorCount++;
retval = -1;
goto cleanup;
}
} else if (tell_who) {
if (JarWho(tell_who)) {
errorCount++;
retval = -1;
goto cleanup;
}
} else if (javascript && jartree) {
/* make sure directory exists */
PRDir *dir;
dir = PR_OpenDir(jartree);
if (!dir) {
PR_fprintf(errorFD, "ERROR: unable to open directory %s.\n",
jartree);
errorCount++;
retval = -1;
goto cleanup;
} else {
PR_CloseDir(dir);
}
/* undo junk from prior runs of signtool*/
if (RemoveAllArc(jartree)) {
PR_fprintf(errorFD, "Error removing archive directories under %s\n",
jartree);
errorCount++;
retval = -1;
goto cleanup;
}
/* traverse all the htm|html files in the directory */
if (InlineJavaScript(jartree, !noRecurse)) {
retval = -1;
goto cleanup;
}
/* sign any resultant .arc directories created in above step */
if (SignAllArc(jartree, keyName, javascript, metafile, install_script,
optimize, !noRecurse)) {
retval = -1;
goto cleanup;
}
if (!leaveArc) {
RemoveAllArc(jartree);
}
if (errorCount > 0 || warningCount > 0) {
PR_fprintf(outputFD, "%d error%s, %d warning%s.\n",
errorCount,
errorCount == 1 ? "" : "s", warningCount, warningCount == 1 ? "" : "s");
} else {
PR_fprintf(outputFD, "Directory %s signed successfully.\n",
jartree);
}
} else if (jartree) {
SignArchive(jartree, keyName, zipfile, javascript, metafile,
install_script, optimize, !noRecurse);
} else
Usage();
cleanup:
if (extensions) {
PL_HashTableDestroy(extensions);
extensions = NULL;
}
if (excludeDirs) {
PL_HashTableDestroy(excludeDirs);
excludeDirs = NULL;
}
if (outputFD != PR_STDOUT) {
PR_Close(outputFD);
}
rm_dash_r(TMP_OUTPUT);
if (retval == 0) {
if (NSS_Shutdown() != SECSuccess) {
exit(1);
}
}
return retval;
}
void
collateHistory (RDF r, RDF_Resource u, PRBool byDateFlag)
{
HASHINFO hash = { 4*1024, 0, 0, 0, 0, 0};
DBT key, data;
time_t last,first,numaccess;
PRBool firstOne = 0;
DB* db = CallDBOpenUsingFileURL(gGlobalHistoryURL, O_RDONLY ,0600,
DB_HASH, &hash);
grdf = r;
if (db != NULL) {
if (!byDateFlag) {
hostHash = PL_NewHashTable(500, idenHash, PL_CompareValues, PL_CompareValues, null, null);
} else ByDateOpened = 1;
while (0 == (*db->seq)(db, &key, &data, (firstOne ? R_NEXT : R_FIRST))) {
char* title = ((char*)data.data + 16); /* title */
char* url = (char*)key.data; /* url */
int32 flag = (int32)*((char*)data.data + 3*sizeof(int32));
firstOne = 1;
#ifdef XP_UNIX
if ((/*1 == flag &&*/ displayHistoryItem((char*)key.data))) {
#else
if (1 == flag && displayHistoryItem((char*)key.data)) {
#endif
COPY_INT32(&last, (time_t *)((char *)data.data));
COPY_INT32(&first, (time_t *)((char *)data.data + 4));
COPY_INT32(&numaccess, (time_t *)((char *)data.data + 8));
collateOneHist(r, u,url,title, last, first, numaccess, byDateFlag);
}
}
(*db->close)(db);
}
}
void
collateOneHist (RDF r, RDF_Resource u, char* url, char* title, time_t lastAccessDate,
time_t firstAccessDate, uint32 numAccesses, PRBool byDateFlag)
{
RDF_Resource hostUnit, urlUnit;
char* existingName = NULL;
if (startsWith("404", title)) return;
urlUnit = HistCreate(url, 1);
existingName = nlocalStoreGetSlotValue(gLocalStore, urlUnit, gCoreVocab->RDF_name, RDF_STRING_TYPE, 0, 1);
if (existingName == NULL) {
if (title[0] != '\0') remoteAddName(urlUnit, title);
} else freeMem(existingName);
if (byDateFlag) {
hostUnit = hostUnitOfDate(r, u, lastAccessDate);
} else {
hostUnit = hostUnitOfURL(r, u, urlUnit, title);
}
if (hostUnit == NULL) return;
if (hostUnit != urlUnit) remoteAddParent(urlUnit, hostUnit);
remoteStoreAdd(gRemoteStore, urlUnit, gWebData->RDF_lastVisitDate,
(void *)lastAccessDate, RDF_INT_TYPE, 1);
remoteStoreAdd(gRemoteStore, urlUnit, gWebData->RDF_firstVisitDate,
(void *)firstAccessDate, RDF_INT_TYPE, 1);
if (numAccesses==0) ++numAccesses;
remoteStoreAdd(gRemoteStore, urlUnit, gWebData->RDF_numAccesses,
(void *)numAccesses, RDF_INT_TYPE, 1);
}
int main(int argc, char **argv)
{
if (argc != 2) {
fprintf(stderr,
"Expected usage: %s <sd-leak-file>\n"
" sd-leak-file: Output of --shutdown-leaks=<file> option.\n",
argv[0]);
return 1;
}
NS_InitXPCOM2(NULL, NULL, NULL);
ADLog log;
if (!log.Read(argv[1])) {
fprintf(stderr,
"%s: Error reading input file %s.\n", argv[0], argv[1]);
}
const size_t count = log.count();
PLHashTable *memory_map =
PL_NewHashTable(count * 8, hash_pointer, PL_CompareValues,
PL_CompareValues, 0, 0);
if (!memory_map) {
fprintf(stderr, "%s: Out of memory.\n", argv[0]);
return 1;
}
// Create one |AllocationNode| object for each log entry, and create
// entries in the hashtable pointing to it for each byte it occupies.
AllocationNode *nodes = new AllocationNode[count];
if (!nodes) {
fprintf(stderr, "%s: Out of memory.\n", argv[0]);
return 1;
}
{
AllocationNode *cur_node = nodes;
for (ADLog::const_iterator entry = log.begin(), entry_end = log.end();
entry != entry_end; ++entry, ++cur_node) {
const ADLog::Entry *e = cur_node->entry = *entry;
cur_node->reached = false;
for (ADLog::Pointer p = e->address,
p_end = e->address + e->datasize;
p != p_end; ++p) {
PLHashEntry *e = PL_HashTableAdd(memory_map, p, cur_node);
if (!e) {
fprintf(stderr, "%s: Out of memory.\n", argv[0]);
return 1;
}
}
}
}
// Construct graph based on pointers.
for (AllocationNode *node = nodes, *node_end = nodes + count;
node != node_end; ++node) {
const ADLog::Entry *e = node->entry;
for (const char *d = e->data, *d_end = e->data + e->datasize -
e->datasize % sizeof(ADLog::Pointer);
d != d_end; d += sizeof(ADLog::Pointer)) {
AllocationNode *target = (AllocationNode*)
PL_HashTableLookup(memory_map, *(void**)d);
if (target) {
target->pointers_from.AppendElement(node);
node->pointers_to.AppendElement(target);
}
}
}
// Do a depth-first search on the graph (i.e., by following
// |pointers_to|) and assign the post-order index to |index|.
{
PRUint32 dfs_index = 0;
nsVoidArray stack;
for (AllocationNode *n = nodes, *n_end = nodes+count; n != n_end; ++n) {
if (n->reached) {
continue;
}
stack.AppendElement(n);
do {
PRUint32 pos = stack.Count() - 1;
AllocationNode *n =
static_cast<AllocationNode*>(stack[pos]);
if (n->reached) {
n->index = dfs_index++;
stack.RemoveElementAt(pos);
} else {
n->reached = true;
// When doing post-order processing, we have to be
// careful not to put reached nodes into the stack.
nsVoidArray &pt = n->pointers_to;
for (PRInt32 i = pt.Count() - 1; i >= 0; --i) {
if (!static_cast<AllocationNode*>(pt[i])->reached) {
stack.AppendElement(pt[i]);
}
}
}
} while (stack.Count() > 0);
}
}
// Sort the nodes by their DFS index, in reverse, so that the first
// node is guaranteed to be in a root SCC.
AllocationNode **sorted_nodes = new AllocationNode*[count];
if (!sorted_nodes) {
fprintf(stderr, "%s: Out of memory.\n", argv[0]);
return 1;
}
{
for (size_t i = 0; i < count; ++i) {
sorted_nodes[i] = nodes + i;
}
NS_QuickSort(sorted_nodes, count, sizeof(AllocationNode*),
sort_by_reverse_index, 0);
}
// Put the nodes into their strongly-connected components.
PRUint32 num_sccs = 0;
{
for (size_t i = 0; i < count; ++i) {
nodes[i].reached = false;
}
nsVoidArray stack;
for (AllocationNode **sn = sorted_nodes,
**sn_end = sorted_nodes + count; sn != sn_end; ++sn) {
if ((*sn)->reached) {
continue;
}
// We found a new strongly connected index.
stack.AppendElement(*sn);
do {
PRUint32 pos = stack.Count() - 1;
AllocationNode *n =
static_cast<AllocationNode*>(stack[pos]);
stack.RemoveElementAt(pos);
if (!n->reached) {
n->reached = true;
n->index = num_sccs;
stack.AppendElements(n->pointers_from);
}
} while (stack.Count() > 0);
++num_sccs;
}
}
// Identify which nodes are leak roots by using DFS, and watching
// for component transitions.
PRUint32 num_root_nodes = count;
{
for (size_t i = 0; i < count; ++i) {
nodes[i].is_root = true;
}
nsVoidArray stack;
for (AllocationNode *n = nodes, *n_end = nodes+count; n != n_end; ++n) {
if (!n->is_root) {
continue;
}
// Loop through pointers_to, and add any that are in a
// different SCC to stack:
for (int i = n->pointers_to.Count() - 1; i >= 0; --i) {
AllocationNode *target =
static_cast<AllocationNode*>(n->pointers_to[i]);
if (n->index != target->index) {
stack.AppendElement(target);
}
}
while (stack.Count() > 0) {
PRUint32 pos = stack.Count() - 1;
AllocationNode *n =
static_cast<AllocationNode*>(stack[pos]);
stack.RemoveElementAt(pos);
if (n->is_root) {
n->is_root = false;
--num_root_nodes;
stack.AppendElements(n->pointers_to);
}
}
}
}
// Sort the nodes by their SCC index.
NS_QuickSort(sorted_nodes, count, sizeof(AllocationNode*),
sort_by_index, 0);
// Print output.
{
printf("<!DOCTYPE html PUBLIC \"-//W3C//DTD HTML 4.01//EN\">\n"
"<html>\n"
"<head>\n"
"<title>Leak analysis</title>\n"
"<style type=\"text/css\">\n"
" .root { background: white; color: black; }\n"
" .nonroot { background: #ccc; color: black; }\n"
"</style>\n"
"</head>\n");
printf("<body>\n\n"
"<p>Generated %d entries (%d in root SCCs) and %d SCCs.</p>\n\n",
count, num_root_nodes, num_sccs);
for (size_t i = 0; i < count; ++i) {
nodes[i].reached = false;
}
// Loop over the sorted nodes twice, first printing the roots
// and then the non-roots.
for (PRInt32 root_type = true;
root_type == true || root_type == false; --root_type) {
if (root_type) {
printf("\n\n"
"<div class=\"root\">\n"
"<h1 id=\"root\">Root components</h1>\n");
} else {
printf("\n\n"
"<div class=\"nonroot\">\n"
"<h1 id=\"nonroot\">Non-root components</h1>\n");
}
PRUint32 component = (PRUint32)-1;
bool one_object_component;
for (const AllocationNode *const* sn = sorted_nodes,
*const* sn_end = sorted_nodes + count;
sn != sn_end; ++sn) {
const AllocationNode *n = *sn;
if (n->is_root != root_type)
continue;
const ADLog::Entry *e = n->entry;
if (n->index != component) {
component = n->index;
one_object_component =
sn + 1 == sn_end || (*(sn+1))->index != component;
if (!one_object_component)
printf("\n\n<h2 id=\"c%d\">Component %d</h2>\n",
component, component);
}
if (one_object_component) {
printf("\n\n<div id=\"c%d\">\n", component);
printf("<h2 id=\"o%d\">Object %d "
"(single-object component %d)</h2>\n",
n-nodes, n-nodes, component);
} else {
printf("\n\n<h3 id=\"o%d\">Object %d</h3>\n",
n-nodes, n-nodes);
}
printf("<pre>\n");
printf("%p <%s> (%d)\n",
e->address, e->type, e->datasize);
for (size_t d = 0; d < e->datasize;
d += sizeof(ADLog::Pointer)) {
AllocationNode *target = (AllocationNode*)
PL_HashTableLookup(memory_map, *(void**)(e->data + d));
if (target) {
printf(" <a href=\"#o%d\">0x%08X</a> <%s>",
target - nodes,
*(unsigned int*)(e->data + d),
target->entry->type);
if (target->index != n->index) {
printf(", component %d", target->index);
}
printf("\n");
} else {
printf(" 0x%08X\n",
*(unsigned int*)(e->data + d));
}
}
if (n->pointers_from.Count()) {
printf("\nPointers from:\n");
for (PRUint32 i = 0, i_end = n->pointers_from.Count();
i != i_end; ++i) {
AllocationNode *t = static_cast<AllocationNode*>
(n->pointers_from[i]);
const ADLog::Entry *te = t->entry;
printf(" <a href=\"#o%d\">%s</a> (Object %d, ",
t - nodes, te->type, t - nodes);
if (t->index != n->index) {
printf("component %d, ", t->index);
}
if (t == n) {
printf("self)\n");
} else {
printf("%p)\n", te->address);
}
}
}
print_escaped(stdout, e->allocation_stack);
printf("</pre>\n");
if (one_object_component) {
printf("</div>\n");
}
}
printf("</div>\n");
}
printf("</body>\n"
"</html>\n");
}
delete [] sorted_nodes;
delete [] nodes;
NS_ShutdownXPCOM(NULL);
return 0;
}
State()
{
m_pHash = PL_NewHashTable(32, PL_HashString,
PL_CompareStrings, PL_CompareValues,
&m_sAllocOps, NULL);
};
