PRMJ_ToExtendedTime(PRInt32 time)
{
PRInt64 exttime;
PRInt64 g1970GMTMicroSeconds;
PRInt64 low;
time_t diff;
PRInt64 tmp;
PRInt64 tmp1;
diff = PRMJ_LocalGMTDifference();
LL_UI2L(tmp, PRMJ_USEC_PER_SEC);
LL_I2L(tmp1,diff);
LL_MUL(tmp,tmp,tmp1);
LL_UI2L(g1970GMTMicroSeconds,G1970GMTMICROHI);
LL_UI2L(low,G1970GMTMICROLOW);
#ifndef HAVE_LONG_LONG
LL_SHL(g1970GMTMicroSeconds,g1970GMTMicroSeconds,16);
LL_SHL(g1970GMTMicroSeconds,g1970GMTMicroSeconds,16);
#else
LL_SHL(g1970GMTMicroSeconds,g1970GMTMicroSeconds,32);
#endif
LL_ADD(g1970GMTMicroSeconds,g1970GMTMicroSeconds,low);
LL_I2L(exttime,time);
LL_ADD(exttime,exttime,g1970GMTMicroSeconds);
LL_SUB(exttime,exttime,tmp);
return exttime;
}
int workqueue_init(workqueue_t *workqueue, int numWorkers) {
int i;
worker_t *worker;
pthread_cond_t blank_cond = PTHREAD_COND_INITIALIZER;
pthread_mutex_t blank_mutex = PTHREAD_MUTEX_INITIALIZER;
if (numWorkers < 1) numWorkers = 1;
memset(workqueue, 0, sizeof(*workqueue));
memcpy(&workqueue->jobs_mutex, &blank_mutex,
sizeof(workqueue->jobs_mutex));
memcpy(&workqueue->jobs_cond, &blank_cond, sizeof(workqueue->jobs_cond));
for (i = 0; i < numWorkers; i++) {
if ((worker = (worker_t*)malloc(sizeof(worker_t))) == NULL) {
perror("Failed to allocate all workers");
return 1;
}
memset(worker, 0, sizeof(*worker));
worker->workqueue = workqueue;
if (pthread_create(&worker->thread, NULL, worker_function,
(void *)worker)) {
perror("Failed to start all worker threads");
free(worker);
return 1;
}
LL_ADD(worker, worker->workqueue->workers);
}
return 0;
}
static void deadlines_update(iocpdesc_t *iocpd, pn_timestamp_t deadline)
{
if (deadline == iocpd->deadline)
return;
iocpd->deadline = deadline;
pn_selector_t *selector = iocpd->selector;
if (!deadline) {
deadlines_remove(selector, iocpd);
pni_events_update(iocpd, iocpd->events & ~PN_EXPIRED);
} else {
if (iocpd->deadlines_prev || selector->deadlines_head == iocpd) {
deadlines_remove(selector, iocpd);
pni_events_update(iocpd, iocpd->events & ~PN_EXPIRED);
}
iocpdesc_t *dl_iocpd = LL_HEAD(selector, deadlines);
while (dl_iocpd && dl_iocpd->deadline <= deadline)
dl_iocpd = dl_iocpd->deadlines_next;
if (dl_iocpd) {
// insert
iocpd->deadlines_prev = dl_iocpd->deadlines_prev;
iocpd->deadlines_next = dl_iocpd;
dl_iocpd->deadlines_prev = iocpd;
if (selector->deadlines_head == dl_iocpd)
selector->deadlines_head = iocpd;
} else {
LL_ADD(selector, deadlines, iocpd); // append
}
}
}
void workqueue_add_job(workqueue_t *workqueue, job_t *job) {
/* Add the job to the job queue, and notify a worker. */
pthread_mutex_lock(&workqueue->jobs_mutex);
LL_ADD(job, workqueue->waiting_jobs);
pthread_cond_signal(&workqueue->jobs_cond);
pthread_mutex_unlock(&workqueue->jobs_mutex);
}
PRTime
rdf_ParseDate(const nsACString &aTime)
{
PRTime t;
PR_ParseTimeString(PromiseFlatCString(aTime).get(), PR_TRUE, &t);
PRInt32 usec = 0;
nsACString::const_iterator begin, digit, end;
aTime.BeginReading(begin);
aTime.EndReading(end);
// Walk backwards until we find a `+', run out of string, or a
// non-numeric character.
digit = end;
while (--digit != begin && *digit != '+') {
if (*digit < '0' || *digit > '9')
break;
}
if (digit != begin && *digit == '+') {
// There's a usec field specified (or, at least, something
// that looks close enough. Parse it, and add it to the time.
while (++digit != end) {
usec *= 10;
usec += *digit - '0';
}
PRTime temp;
LL_I2L(temp, usec);
LL_ADD(t, t, temp);
}
return t;
}
/*
* PR_Now() on the Mac only gives us a resolution of seconds. Using
* PR_IntervalNow() gives us better resolution. with the drawback that
* the timeline is only good for about six hours.
*
* PR_IntervalNow() occasionally exhibits discontinuities on Windows,
* so we only use it on the Mac. Bleah!
*/
static PRTime Now(void)
{
PRIntervalTime numTicks = PR_IntervalNow() - initInterval;
PRTime now;
LL_ADD(now, initTime, PR_IntervalToMilliseconds(numTicks) * 1000);
return now;
}
void addVariance(VarianceState* inVariance, unsigned inValue)
/*
** Add a value to a variance state.
*/
{
PRUint64 squared;
PRUint64 bigValue;
LL_UI2L(bigValue, inValue);
LL_ADD(inVariance->mSum, inVariance->mSum, bigValue);
LL_MUL(squared, bigValue, bigValue);
LL_ADD(inVariance->mSquaredSum, inVariance->mSquaredSum, squared);
inVariance->mCount++;
}
void nsTimelineServiceTimer::stop(PRTime now)
{
TIMER_CHECK_OWNER();
mRunning--;
if (mRunning == 0) {
PRTime delta, accum;
LL_SUB(delta, now, mStart);
LL_ADD(accum, mAccum, delta);
mAccum = accum;
}
}
static PRUint64
RubyTo64BitInt(VALUE aRuby)
{
VALUE bitMask = max_PRUint32;
VALUE lo = rb_funcall(aRuby, id_and, 1, bitMask);
VALUE hi = rb_funcall(aRuby, id_rshift, 1, INT2FIX(32));
PRUint64 result, hi64, lo64;
LL_UI2L(hi64, NUM2UINT(hi));
LL_UI2L(lo64, NUM2UINT(lo));
LL_SHL(result, hi64, 32);
LL_ADD(result, result, lo64);
return result;
}
PRInt64 StatsManagerUtil::getSeconds(PRInt64 time)
{
PRInt64 temp = 0;
PRInt64 dividend = 0;
PRInt64 divisor = 0;
LL_UI2L(temp, PR_USEC_PER_SEC/2);
LL_ADD(dividend, time, temp);
LL_UI2L(divisor, PR_USEC_PER_SEC);
LL_DIV(temp, dividend, divisor);
return temp;
}
PRMJ_ToBaseTime(PRInt64 time)
{
PRInt64 g1970GMTMicroSeconds;
PRInt64 g2037GMTMicroSeconds;
PRInt64 low;
PRInt32 result;
LL_UI2L(g1970GMTMicroSeconds,G1970GMTMICROHI);
LL_UI2L(low,G1970GMTMICROLOW);
#ifndef HAVE_LONG_LONG
LL_SHL(g1970GMTMicroSeconds,g1970GMTMicroSeconds,16);
LL_SHL(g1970GMTMicroSeconds,g1970GMTMicroSeconds,16);
#else
LL_SHL(g1970GMTMicroSeconds,g1970GMTMicroSeconds,32);
#endif
LL_ADD(g1970GMTMicroSeconds,g1970GMTMicroSeconds,low);
LL_UI2L(g2037GMTMicroSeconds,G2037GMTMICROHI);
LL_UI2L(low,G2037GMTMICROLOW);
#ifndef HAVE_LONG_LONG
LL_SHL(g2037GMTMicroSeconds,g2037GMTMicroSeconds,16);
LL_SHL(g2037GMTMicroSeconds,g2037GMTMicroSeconds,16);
#else
LL_SHL(g2037GMTMicroSeconds,g2037GMTMicroSeconds,32);
#endif
LL_ADD(g2037GMTMicroSeconds,g2037GMTMicroSeconds,low);
if(LL_CMP(time, <, g1970GMTMicroSeconds) ||
LL_CMP(time, >, g2037GMTMicroSeconds)){
return -1;
}
LL_SUB(time,time,g1970GMTMicroSeconds);
LL_L2I(result,time);
return result;
}
PRTime nsTimelineServiceTimer::getAccum(PRTime now)
{
TIMER_CHECK_OWNER();
PRTime accum;
if (!mRunning) {
accum = mAccum;
} else {
PRTime delta;
LL_SUB(delta, now, mStart);
LL_ADD(accum, mAccum, delta);
}
return accum;
}
pni_entry_t *pni_store_put(pni_store_t *store, const char *address)
{
assert(store);
static pn_class_t clazz = PN_CLASS(pni_entry);
if (!address) address = "";
pni_stream_t *stream = pni_stream_put(store, address);
if (!stream) return NULL;
pni_entry_t *entry = (pni_entry_t *) pn_new(sizeof(pni_entry_t), &clazz);
if (!entry) return NULL;
entry->stream = stream;
entry->free = false;
entry->stream_next = NULL;
entry->stream_prev = NULL;
entry->store_next = NULL;
entry->store_prev = NULL;
entry->delivery = NULL;
entry->bytes = pn_buffer(64);
entry->status = PN_STATUS_UNKNOWN;
LL_ADD(stream, stream, entry);
LL_ADD(store, store, entry);
store->size++;
return entry;
}
PR_Now(void)
{
PRInt64 s, ms, ms2us, s2us;
struct timeb b;
ftime(&b);
LL_I2L(ms2us, PR_USEC_PER_MSEC);
LL_I2L(s2us, PR_USEC_PER_SEC);
LL_I2L(s, b.time);
LL_I2L(ms, b.millitm);
LL_MUL(ms, ms, ms2us);
LL_MUL(s, s, s2us);
LL_ADD(s, s, ms);
return s;
}
PRStatus TimelineInit(void)
{
char *timeStr;
char *fileName;
PRInt32 secs, msecs;
PRFileDesc *fd;
PRInt64 tmp1, tmp2;
PRStatus status = PR_NewThreadPrivateIndex( &gTLSIndex, ThreadDestruct );
NS_WARN_IF_FALSE(status==0, "TimelineService could not allocate TLS storage.");
timeStr = PR_GetEnv("NS_TIMELINE_INIT_TIME");
#ifdef XP_MAC
initInterval = PR_IntervalNow();
#endif
// NS_TIMELINE_INIT_TIME only makes sense for the main thread, so if it
// exists, set it there. If not, let normal thread management code take
// care of setting the init time.
if (timeStr != NULL && 2 == PR_sscanf(timeStr, "%d.%d", &secs, &msecs)) {
PRTime &initTime = GetThisThreadData()->initTime;
LL_MUL(tmp1, (PRInt64)secs, 1000000);
LL_MUL(tmp2, (PRInt64)msecs, 1000);
LL_ADD(initTime, tmp1, tmp2);
#ifdef XP_MAC
initInterval -= PR_MicrosecondsToInterval(
(PRUint32)(PR_Now() - initTime));
#endif
}
// Get the log file.
#ifdef XP_MAC
fileName = "timeline.txt";
#else
fileName = PR_GetEnv("NS_TIMELINE_LOG_FILE");
#endif
if (fileName != NULL
&& (fd = PR_Open(fileName, PR_WRONLY | PR_CREATE_FILE | PR_TRUNCATE,
0666)) != NULL) {
timelineFD = fd;
PR_fprintf(fd,
"NOTE: due to asynchrony, the indentation that you see does"
" not necessarily correspond to nesting in the code.\n\n");
}
// Runtime disable of timeline
if (PR_GetEnv("NS_TIMELINE_ENABLE"))
gTimelineDisabled = PR_FALSE;
return PR_SUCCESS;
}
// This should use NSPR but NSPR isn't exporting its PR_strtoll function
// Until then...
PRInt64 nsCRT::atoll(const char *str)
{
if (!str)
return LL_Zero();
PRInt64 ll = LL_Zero(), digitll = LL_Zero();
while (*str && *str >= '0' && *str <= '9') {
LL_MUL(ll, ll, 10);
LL_UI2L(digitll, (*str - '0'));
LL_ADD(ll, ll, digitll);
str++;
}
return ll;
}
/*
* Determine if the token is logged in. We have to actually query the token,
* because it's state can change without intervention from us.
*/
PRBool
PK11_IsLoggedIn(PK11SlotInfo *slot,void *wincx)
{
CK_SESSION_INFO sessionInfo;
int askpw = slot->askpw;
int timeout = slot->timeout;
CK_RV crv;
PRIntervalTime curTime;
static PRIntervalTime login_delay_time = 0;
if (login_delay_time == 0) {
login_delay_time = PR_SecondsToInterval(1);
}
/* If we don't have our own password default values, use the system
* ones */
if ((slot->defaultFlags & PK11_OWN_PW_DEFAULTS) == 0) {
PK11SlotInfo *def_slot = PK11_GetInternalKeySlot();
if (def_slot) {
askpw = def_slot->askpw;
timeout = def_slot->timeout;
PK11_FreeSlot(def_slot);
}
}
if ((wincx != NULL) && (PK11_Global.isLoggedIn != NULL) &&
(*PK11_Global.isLoggedIn)(slot, wincx) == PR_FALSE) { return PR_FALSE; }
/* forget the password if we've been inactive too long */
if (askpw == 1) {
int64 currtime = PR_Now();
int64 result;
int64 mult;
LL_I2L(result, timeout);
LL_I2L(mult, 60*1000*1000);
LL_MUL(result,result,mult);
LL_ADD(result, result, slot->authTime);
if (LL_CMP(result, <, currtime) ) {
PK11_EnterSlotMonitor(slot);
PK11_GETTAB(slot)->C_Logout(slot->session);
slot->lastLoginCheck = 0;
PK11_ExitSlotMonitor(slot);
} else {
PR_IMPLEMENT(PRUint64) PR_htonll(PRUint64 n)
{
#ifdef IS_BIG_ENDIAN
return n;
#else
PRUint64 tmp;
PRUint32 hi, lo;
LL_L2UI(lo, n);
LL_SHR(tmp, n, 32);
LL_L2UI(hi, tmp);
hi = htonl(hi);
lo = htonl(lo);
LL_UI2L(n, lo);
LL_SHL(n, n, 32);
LL_UI2L(tmp, hi);
LL_ADD(n, n, tmp);
return n;
#endif
} /* htonll */
void nsNetscapeProfileMigratorBase::CopyNextFolder()
{
if (mFileCopyTransactionIndex < mFileCopyTransactions.Length())
{
PRUint32 percentage = 0;
fileTransactionEntry fileTransaction =
mFileCopyTransactions.ElementAt(mFileCopyTransactionIndex++);
// copy the file
fileTransaction.srcFile->CopyTo(fileTransaction.destFile,
fileTransaction.newName);
// add to our current progress
PRInt64 fileSize;
fileTransaction.srcFile->GetFileSize(&fileSize);
LL_ADD(mCurrentProgress, mCurrentProgress, fileSize);
PRInt64 percentDone;
LL_MUL(percentDone, mCurrentProgress, 100);
LL_DIV(percentDone, percentDone, mMaxProgress);
LL_L2UI(percentage, percentDone);
nsAutoString index;
index.AppendInt(percentage);
NOTIFY_OBSERVERS(MIGRATION_PROGRESS, index.get());
// fire a timer to handle the next one.
mFileIOTimer = do_CreateInstance("@mozilla.org/timer;1");
if (mFileIOTimer)
mFileIOTimer->InitWithCallback(static_cast<nsITimerCallback *>(this), percentage == 100 ? 500 : 0, nsITimer::TYPE_ONE_SHOT);
} else
EndCopyFolders();
return;
}
static int start_ssl_shutdown( pn_ssl_t *ssl )
{
if (!ssl->ssl_shutdown) {
_log(ssl, "Shutting down SSL connection...\n");
if (ssl->session_id) {
// save the negotiated credentials before we close the connection
pn_ssl_session_t *ssn = (pn_ssl_session_t *)calloc( 1, sizeof(pn_ssl_session_t));
if (ssn) {
ssn->id = pn_strdup( ssl->session_id );
ssn->session = SSL_get1_session( ssl->ssl );
if (ssn->session) {
_log( ssl, "Saving SSL session as %s\n", ssl->session_id );
LL_ADD( ssl->domain, ssn_cache, ssn );
} else {
ssl_session_free( ssn );
}
}
}
ssl->ssl_shutdown = true;
BIO_ssl_shutdown( ssl->bio_ssl );
}
return 0;
}
NS_IMETHODIMP
InvokeTestTarget::AddTwoLLs(PRInt64 p1, PRInt64 p2, PRInt64* retval)
{
LL_ADD(*retval, p1, p2);
return NS_OK;
}
// Set rcvDate to true to get the Received: date instead of the Date: date.
nsresult nsMsgGroupView::GetAgeBucketValue(nsIMsgDBHdr *aMsgHdr, PRUint32 * aAgeBucket, bool rcvDate)
{
NS_ENSURE_ARG_POINTER(aMsgHdr);
NS_ENSURE_ARG_POINTER(aAgeBucket);
PRTime dateOfMsg;
nsresult rv;
if (!rcvDate)
rv = aMsgHdr->GetDate(&dateOfMsg);
else
{
PRUint32 rcvDateSecs;
rv = aMsgHdr->GetUint32Property("dateReceived", &rcvDateSecs);
Seconds2PRTime(rcvDateSecs, &dateOfMsg);
}
NS_ENSURE_SUCCESS(rv, rv);
PRTime currentTime = PR_Now();
PRExplodedTime currentExplodedTime;
PR_ExplodeTime(currentTime, PR_LocalTimeParameters, ¤tExplodedTime);
PRExplodedTime explodedMsgTime;
PR_ExplodeTime(dateOfMsg, PR_LocalTimeParameters, &explodedMsgTime);
if (m_lastCurExplodedTime.tm_mday &&
m_lastCurExplodedTime.tm_mday != currentExplodedTime.tm_mday)
m_dayChanged = true; // this will cause us to rebuild the view.
m_lastCurExplodedTime = currentExplodedTime;
if (currentExplodedTime.tm_year == explodedMsgTime.tm_year &&
currentExplodedTime.tm_month == explodedMsgTime.tm_month &&
currentExplodedTime.tm_mday == explodedMsgTime.tm_mday)
{
// same day...
*aAgeBucket = 1;
}
// figure out how many days ago this msg arrived
else if (LL_CMP(currentTime, >, dateOfMsg))
{
// some constants for calculation
static PRInt64 microSecondsPerSecond;
static PRInt64 microSecondsPerDay;
static PRInt64 secondsPerDay;
static PRInt64 microSecondsPer6Days;
static PRInt64 microSecondsPer13Days;
static bool bGotConstants = false;
if ( !bGotConstants )
{
// seeds
LL_I2L ( microSecondsPerSecond, PR_USEC_PER_SEC );
LL_UI2L ( secondsPerDay, 60 * 60 * 24 );
// derivees
LL_MUL( microSecondsPerDay, secondsPerDay, microSecondsPerSecond );
LL_MUL( microSecondsPer6Days, microSecondsPerDay, 6 );
LL_MUL( microSecondsPer13Days, microSecondsPerDay, 13 );
bGotConstants = true;
}
// setting the time variables to local time
PRInt64 GMTLocalTimeShift;
LL_ADD( GMTLocalTimeShift, currentExplodedTime.tm_params.tp_gmt_offset, currentExplodedTime.tm_params.tp_dst_offset );
LL_MUL( GMTLocalTimeShift, GMTLocalTimeShift, microSecondsPerSecond );
LL_ADD( currentTime, currentTime, GMTLocalTimeShift );
LL_ADD( dateOfMsg, dateOfMsg, GMTLocalTimeShift );
// the most recent midnight, counting from current time
PRInt64 todaysMicroSeconds, mostRecentMidnight;
LL_MOD( todaysMicroSeconds, currentTime, microSecondsPerDay );
LL_SUB( mostRecentMidnight, currentTime, todaysMicroSeconds );
PRInt64 yesterday;
LL_SUB( yesterday, mostRecentMidnight, microSecondsPerDay );
// most recent midnight minus 6 days
PRInt64 mostRecentWeek;
LL_SUB( mostRecentWeek, mostRecentMidnight, microSecondsPer6Days );
// was the message sent yesterday?
if ( LL_CMP( dateOfMsg, >=, yesterday ) ) // yes ....
*aAgeBucket = 2;
else if ( LL_CMP(dateOfMsg, >=, mostRecentWeek) )
*aAgeBucket = 3;
else
{
nsresult nsMsgSearchAdapter::EncodeImapTerm (nsIMsgSearchTerm *term, bool reallyDredd, const PRUnichar *srcCharset, const PRUnichar *destCharset, char **ppOutTerm)
{
NS_ENSURE_ARG_POINTER(term);
NS_ENSURE_ARG_POINTER(ppOutTerm);
nsresult err = NS_OK;
bool useNot = false;
bool useQuotes = false;
bool ignoreValue = false;
nsCAutoString arbitraryHeader;
const char *whichMnemonic = nsnull;
const char *orHeaderMnemonic = nsnull;
*ppOutTerm = nsnull;
nsCOMPtr <nsIMsgSearchValue> searchValue;
nsresult rv = term->GetValue(getter_AddRefs(searchValue));
NS_ENSURE_SUCCESS(rv,rv);
nsMsgSearchOpValue op;
term->GetOp(&op);
if (op == nsMsgSearchOp::DoesntContain || op == nsMsgSearchOp::Isnt)
useNot = true;
nsMsgSearchAttribValue attrib;
term->GetAttrib(&attrib);
switch (attrib)
{
case nsMsgSearchAttrib::ToOrCC:
orHeaderMnemonic = m_kImapCC;
// fall through to case nsMsgSearchAttrib::To:
case nsMsgSearchAttrib::To:
whichMnemonic = m_kImapTo;
break;
case nsMsgSearchAttrib::CC:
whichMnemonic = m_kImapCC;
break;
case nsMsgSearchAttrib::Sender:
whichMnemonic = m_kImapFrom;
break;
case nsMsgSearchAttrib::Subject:
whichMnemonic = m_kImapSubject;
break;
case nsMsgSearchAttrib::Body:
whichMnemonic = m_kImapBody;
break;
case nsMsgSearchAttrib::AgeInDays: // added for searching online for age in days...
// for AgeInDays, we are actually going to perform a search by date, so convert the operations for age
// to the IMAP mnemonics that we would use for date!
{
// If we have a future date, the > and < are reversed.
// e.g. ageInDays > 2 means more than 2 days old ("date before X") whereas
// ageInDays > -2 should be more than 2 days in the future ("date after X")
PRInt32 ageInDays;
searchValue->GetAge(&ageInDays);
bool dateInFuture = (ageInDays < 0);
switch (op)
{
case nsMsgSearchOp::IsGreaterThan:
whichMnemonic = (!dateInFuture) ? m_kImapBefore : m_kImapSince;
break;
case nsMsgSearchOp::IsLessThan:
whichMnemonic = (!dateInFuture) ? m_kImapSince : m_kImapBefore;
break;
case nsMsgSearchOp::Is:
whichMnemonic = m_kImapSentOn;
break;
default:
NS_ASSERTION(false, "invalid search operator");
return NS_ERROR_INVALID_ARG;
}
}
break;
case nsMsgSearchAttrib::Size:
switch (op)
{
case nsMsgSearchOp::IsGreaterThan:
whichMnemonic = m_kImapSizeLarger;
break;
case nsMsgSearchOp::IsLessThan:
whichMnemonic = m_kImapSizeSmaller;
break;
default:
NS_ASSERTION(false, "invalid search operator");
return NS_ERROR_INVALID_ARG;
}
break;
case nsMsgSearchAttrib::Date:
switch (op)
{
case nsMsgSearchOp::IsBefore:
whichMnemonic = m_kImapBefore;
break;
case nsMsgSearchOp::IsAfter:
whichMnemonic = m_kImapSince;
break;
case nsMsgSearchOp::Isnt: /* we've already added the "Not" so just process it like it was a date is search */
case nsMsgSearchOp::Is:
whichMnemonic = m_kImapSentOn;
break;
default:
NS_ASSERTION(false, "invalid search operator");
return NS_ERROR_INVALID_ARG;
}
break;
case nsMsgSearchAttrib::AnyText:
whichMnemonic = m_kImapAnyText;
break;
case nsMsgSearchAttrib::Keywords:
whichMnemonic = m_kImapKeyword;
break;
case nsMsgSearchAttrib::MsgStatus:
useNot = false; // bizarrely, NOT SEEN is wrong, but UNSEEN is right.
ignoreValue = true; // the mnemonic is all we need
PRUint32 status;
searchValue->GetStatus(&status);
switch (status)
{
case nsMsgMessageFlags::Read:
whichMnemonic = op == nsMsgSearchOp::Is ? m_kImapSeen : m_kImapNotSeen;
break;
case nsMsgMessageFlags::Replied:
whichMnemonic = op == nsMsgSearchOp::Is ? m_kImapAnswered : m_kImapNotAnswered;
break;
case nsMsgMessageFlags::New:
whichMnemonic = op == nsMsgSearchOp::Is ? m_kImapNew : m_kImapNotNew;
break;
case nsMsgMessageFlags::Marked:
whichMnemonic = op == nsMsgSearchOp::Is ? m_kImapFlagged : m_kImapNotFlagged;
break;
default:
NS_ASSERTION(false, "invalid search operator");
return NS_ERROR_INVALID_ARG;
}
break;
default:
if ( attrib > nsMsgSearchAttrib::OtherHeader && attrib < nsMsgSearchAttrib::kNumMsgSearchAttributes)
{
nsCString arbitraryHeaderTerm;
term->GetArbitraryHeader(arbitraryHeaderTerm);
if (!arbitraryHeaderTerm.IsEmpty())
{
arbitraryHeader.AssignLiteral(" \"");
arbitraryHeader.Append(arbitraryHeaderTerm);
arbitraryHeader.AppendLiteral("\" ");
whichMnemonic = arbitraryHeader.get();
}
else
return NS_ERROR_FAILURE;
}
else
{
NS_ASSERTION(false, "invalid search operator");
return NS_ERROR_INVALID_ARG;
}
}
char *value = nsnull;
char dateBuf[100];
dateBuf[0] = '\0';
bool valueWasAllocated = false;
if (attrib == nsMsgSearchAttrib::Date)
{
// note that there used to be code here that encoded an RFC822 date for imap searches.
// The IMAP RFC 2060 is misleading to the point that it looks like it requires an RFC822
// date but really it expects dd-mmm-yyyy, like dredd, and refers to the RFC822 date only in that the
// dd-mmm-yyyy date will match the RFC822 date within the message.
PRTime adjustedDate;
searchValue->GetDate(&adjustedDate);
if (whichMnemonic == m_kImapSince)
{
// it looks like the IMAP server searches on Since includes the date in question...
// our UI presents Is, IsGreater and IsLessThan. For the IsGreater case (m_kImapSince)
// we need to adjust the date so we get greater than and not greater than or equal to which
// is what the IMAP server wants to search on
// won't work on Mac.
// ack, is this right? is PRTime seconds or microseconds?
PRInt64 microSecondsPerSecond, secondsInDay, microSecondsInDay;
LL_I2L(microSecondsPerSecond, PR_USEC_PER_SEC);
LL_UI2L(secondsInDay, 60 * 60 * 24);
LL_MUL(microSecondsInDay, secondsInDay, microSecondsPerSecond);
LL_ADD(adjustedDate, adjustedDate, microSecondsInDay); // bump up to the day after this one...
}
PRExplodedTime exploded;
PR_ExplodeTime(adjustedDate, PR_LocalTimeParameters, &exploded);
PR_FormatTimeUSEnglish(dateBuf, sizeof(dateBuf), "%d-%b-%Y", &exploded);
// strftime (dateBuf, sizeof(dateBuf), "%d-%b-%Y", localtime (/* &term->m_value.u.date */ &adjustedDate));
value = dateBuf;
}
else
{
if (attrib == nsMsgSearchAttrib::AgeInDays)
{
// okay, take the current date, subtract off the age in days, then do an appropriate Date search on
// the resulting day.
PRInt32 ageInDays;
searchValue->GetAge(&ageInDays);
PRTime now = PR_Now();
PRTime matchDay;
PRInt64 microSecondsPerSecond, secondsInDays, microSecondsInDay;
LL_I2L(microSecondsPerSecond, PR_USEC_PER_SEC);
LL_I2L(secondsInDays, 60 * 60 * 24 * ageInDays);
LL_MUL(microSecondsInDay, secondsInDays, microSecondsPerSecond);
LL_SUB(matchDay, now, microSecondsInDay); // = now - term->m_value.u.age * 60 * 60 * 24;
PRExplodedTime exploded;
PR_ExplodeTime(matchDay, PR_LocalTimeParameters, &exploded);
PR_FormatTimeUSEnglish(dateBuf, sizeof(dateBuf), "%d-%b-%Y", &exploded);
// strftime (dateBuf, sizeof(dateBuf), "%d-%b-%Y", localtime (&matchDay));
value = dateBuf;
}
else if (attrib == nsMsgSearchAttrib::Size)
{
PRUint32 sizeValue;
nsCAutoString searchTermValue;
searchValue->GetSize(&sizeValue);
// Multiply by 1024 to get into kb resolution
sizeValue *= 1024;
// Ensure that greater than is really greater than
// in kb resolution.
if (op == nsMsgSearchOp::IsGreaterThan)
sizeValue += 1024;
searchTermValue.AppendInt(sizeValue);
value = ToNewCString(searchTermValue);
valueWasAllocated = true;
}
else
if (IS_STRING_ATTRIBUTE(attrib))
{
PRUnichar *convertedValue; // = reallyDredd ? MSG_EscapeSearchUrl (term->m_value.u.string) : msg_EscapeImapSearchProtocol(term->m_value.u.string);
nsString searchTermValue;
searchValue->GetStr(searchTermValue);
// Ugly switch for Korean mail/news charsets.
// We want to do this here because here is where
// we know what charset we want to use.
#ifdef DOING_CHARSET
if (reallyDredd)
dest_csid = INTL_DefaultNewsCharSetID(dest_csid);
else
dest_csid = INTL_DefaultMailCharSetID(dest_csid);
#endif
// do all sorts of crazy escaping
convertedValue = reallyDredd ? EscapeSearchUrl (searchTermValue.get()) :
EscapeImapSearchProtocol(searchTermValue.get());
useQuotes = ((!reallyDredd ||
(nsDependentString(convertedValue).FindChar(PRUnichar(' ')) != -1)) &&
(attrib != nsMsgSearchAttrib::Keywords));
// now convert to char* and escape quoted_specials
nsCAutoString valueStr;
nsresult rv = ConvertFromUnicode(NS_LossyConvertUTF16toASCII(destCharset).get(),
nsDependentString(convertedValue), valueStr);
if (NS_SUCCEEDED(rv))
{
const char *vptr = valueStr.get();
// max escaped length is one extra character for every character in the cmd.
nsAutoArrayPtr<char> newValue(new char[2*strlen(vptr) + 1]);
if (newValue)
{
char *p = newValue;
while (1)
{
char ch = *vptr++;
if (!ch)
break;
if ((useQuotes ? ch == '"' : 0) || ch == '\\')
*p++ = '\\';
*p++ = ch;
}
*p = '\0';
value = strdup(newValue); // realloc down to smaller size
}
}
else
value = strdup("");
NS_Free(convertedValue);
valueWasAllocated = true;
}
}
// this should be rewritten to use nsCString
int subLen =
(value ? strlen(value) : 0) +
(useNot ? strlen(m_kImapNot) : 0) +
strlen(m_kImapHeader);
int len = strlen(whichMnemonic) + subLen + (useQuotes ? 2 : 0) +
(orHeaderMnemonic
? (subLen + strlen(m_kImapOr) + strlen(orHeaderMnemonic) + 2 /*""*/)
: 0) +
10; // add slough for imap string literals
char *encoding = new char[len];
if (encoding)
{
encoding[0] = '\0';
// Remember: if ToOrCC and useNot then the expression becomes NOT To AND Not CC as opposed to (NOT TO) || (NOT CC)
if (orHeaderMnemonic && !useNot)
PL_strcat(encoding, m_kImapOr);
if (useNot)
PL_strcat (encoding, m_kImapNot);
if (!arbitraryHeader.IsEmpty())
PL_strcat (encoding, m_kImapHeader);
PL_strcat (encoding, whichMnemonic);
if (!ignoreValue)
err = EncodeImapValue(encoding, value, useQuotes, reallyDredd);
if (orHeaderMnemonic)
{
if (useNot)
PL_strcat(encoding, m_kImapNot);
PL_strcat (encoding, m_kImapHeader);
PL_strcat (encoding, orHeaderMnemonic);
if (!ignoreValue)
err = EncodeImapValue(encoding, value, useQuotes, reallyDredd);
}
// kmcentee, don't let the encoding end with whitespace,
// this throws off later url STRCMP
if (*encoding && *(encoding + strlen(encoding) - 1) == ' ')
*(encoding + strlen(encoding) - 1) = '\0';
}
if (value && valueWasAllocated)
NS_Free (value);
*ppOutTerm = encoding;
return err;
}
/*
* get the difference in seconds between this time zone and UTC (GMT)
*/
PR_IMPLEMENT(time_t) PRMJ_LocalGMTDifference()
{
#if defined(XP_UNIX) || defined(XP_PC)
struct tm ltime;
/* get the difference between this time zone and GMT */
memset((char *)<ime,0,sizeof(ltime));
ltime.tm_mday = 2;
ltime.tm_year = 70;
#ifdef SUNOS4
ltime.tm_zone = 0;
ltime.tm_gmtoff = 0;
return timelocal(<ime) - (24 * 3600);
#else
return mktime(<ime) - (24L * 3600L);
#endif
#endif
#if defined(XP_MAC)
static time_t zone = -1L;
MachineLocation machineLocation;
PRUint64 gmtOffsetSeconds;
PRUint64 gmtDelta;
PRUint64 dlsOffset;
PRInt32 offset;
/* difference has been set no need to recalculate */
if(zone != -1)
return zone;
/* Get the information about the local machine, including
* its GMT offset and its daylight savings time info.
* Convert each into wides that we can add to
* startupTimeMicroSeconds.
*/
MyReadLocation(&machineLocation);
/* Mask off top eight bits of gmtDelta, sign extend lower three. */
if ((machineLocation.u.gmtDelta & 0x00800000) != 0) {
gmtOffsetSeconds.lo = (machineLocation.u.gmtDelta & 0x00FFFFFF) | 0xFF000000;
gmtOffsetSeconds.hi = 0xFFFFFFFF;
LL_UI2L(gmtDelta,0);
}
else {
gmtOffsetSeconds.lo = (machineLocation.u.gmtDelta & 0x00FFFFFF);
gmtOffsetSeconds.hi = 0;
LL_UI2L(gmtDelta,PRMJ_DAY_SECONDS);
}
/* normalize time to be positive if you are behind GMT. gmtDelta will always
* be positive.
*/
LL_SUB(gmtDelta,gmtDelta,gmtOffsetSeconds);
/* Is Daylight Savings On? If so, we need to add an hour to the offset. */
if (machineLocation.u.dlsDelta != 0) {
LL_UI2L(dlsOffset, PRMJ_HOUR_SECONDS);
}
else
LL_I2L(dlsOffset, 0);
LL_ADD(gmtDelta,gmtDelta, dlsOffset);
LL_L2I(offset,gmtDelta);
zone = offset;
return (time_t)offset;
#endif
}
PRMJ_Now(void)
{
#ifdef XP_PC
PRInt64 s, us, ms2us, s2us;
struct timeb b;
#endif /* XP_PC */
#ifdef XP_UNIX
struct timeval tv;
PRInt64 s, us, s2us;
#endif /* XP_UNIX */
#ifdef XP_MAC
UnsignedWide upTime;
PRInt64 localTime;
PRInt64 gmtOffset;
PRInt64 dstOffset;
time_t gmtDiff;
PRInt64 s2us;
#endif /* XP_MAC */
#ifdef XP_PC
ftime(&b);
LL_UI2L(ms2us, PRMJ_USEC_PER_MSEC);
LL_UI2L(s2us, PRMJ_USEC_PER_SEC);
LL_UI2L(s, b.time);
LL_UI2L(us, b.millitm);
LL_MUL(us, us, ms2us);
LL_MUL(s, s, s2us);
LL_ADD(s, s, us);
return s;
#endif
#ifdef XP_UNIX
#if defined(SOLARIS)
gettimeofday(&tv);
#else
gettimeofday(&tv, 0);
#endif /* SOLARIS */
LL_UI2L(s2us, PRMJ_USEC_PER_SEC);
LL_UI2L(s, tv.tv_sec);
LL_UI2L(us, tv.tv_usec);
LL_MUL(s, s, s2us);
LL_ADD(s, s, us);
return s;
#endif /* XP_UNIX */
#ifdef XP_MAC
LL_UI2L(localTime,0);
gmtDiff = PRMJ_LocalGMTDifference();
LL_I2L(gmtOffset,gmtDiff);
LL_UI2L(s2us, PRMJ_USEC_PER_SEC);
LL_MUL(gmtOffset,gmtOffset,s2us);
LL_UI2L(dstOffset,0);
dstOffset = PRMJ_DSTOffset(dstOffset);
LL_SUB(gmtOffset,gmtOffset,dstOffset);
/* don't adjust for DST since it sets ctime and gmtime off on the MAC */
Microseconds(&upTime);
LL_ADD(localTime,localTime,gmtOffset);
LL_ADD(localTime,localTime, *((PRUint64 *)&dstLocalBaseMicroseconds));
LL_ADD(localTime,localTime, *((PRUint64 *)&upTime));
return *((PRUint64 *)&localTime);
#endif /* XP_MAC */
}
int main(int argc, char** argv)
{
/* The command line argument: -d is used to determine if the test is being run
in debug mode. The regress tool requires only one line output:PASS or FAIL.
All of the printfs associated with this test has been handled with a if (debug_mode)
test.
Usage: test_name -d
*/
PLOptStatus os;
PLOptState *opt;
PR_STDIO_INIT();
opt = PL_CreateOptState(argc, argv, "d");
while (PL_OPT_EOL != (os = PL_GetNextOpt(opt)))
{
if (PL_OPT_BAD == os) continue;
switch (opt->option)
{
case 'd': /* debug mode */
debug_mode = PR_TRUE;
break;
default:
break;
}
}
PL_DestroyOptState(opt);
/* main test */
PR_Init(PR_USER_THREAD, PR_PRIORITY_NORMAL, 0);
#ifdef XP_MAC
SetupMacPrintfLog("timetest.log");
debug_mode = PR_TRUE;
#endif
/* Testing zero PRTime (the epoch) */
{
PRTime t;
PRExplodedTime et;
LL_I2L(t, 0);
if (debug_mode) printf("The NSPR epoch is:\n");
PR_ExplodeTime(t, PR_LocalTimeParameters, &et);
printExplodedTime(&et);
if (debug_mode) printf("\n");
PR_ExplodeTime(t, PR_GMTParameters, &et);
printExplodedTime(&et);
if (debug_mode) printf("\n\n");
testParseTimeString(t);
}
/*
*************************************************************
**
** Testing PR_Now(), PR_ExplodeTime, and PR_ImplodeTime
** on the current time
**
*************************************************************
*/
{
PRTime t1, t2;
PRExplodedTime et;
if (debug_mode) {
printf("*********************************************\n");
printf("** **\n");
printf("** Testing PR_Now(), PR_ExplodeTime, and **\n");
printf("** PR_ImplodeTime on the current time **\n");
printf("** **\n");
printf("*********************************************\n\n");
}
t1 = PR_Now();
/* First try converting to UTC */
PR_ExplodeTime(t1, PR_GMTParameters, &et);
if (et.tm_params.tp_gmt_offset || et.tm_params.tp_dst_offset) {
if (debug_mode) printf("ERROR: UTC has nonzero gmt or dst offset.\n");
else failed_already=1;
return 1;
}
if (debug_mode) printf("Current UTC is ");
printExplodedTime(&et);
if (debug_mode) printf("\n");
t2 = PR_ImplodeTime(&et);
if (LL_NE(t1, t2)) {
if (debug_mode) printf("ERROR: Explode and implode are NOT inverse.\n");
else printf("FAIL\n");
return 1;
}
/* Next, try converting to local (US Pacific) time */
PR_ExplodeTime(t1, PR_LocalTimeParameters, &et);
if (debug_mode) printf("Current local time is ");
printExplodedTime(&et);
if (debug_mode) printf("\n");
if (debug_mode) printf("GMT offset is %ld, DST offset is %ld\n",
et.tm_params.tp_gmt_offset, et.tm_params.tp_dst_offset);
t2 = PR_ImplodeTime(&et);
if (LL_NE(t1, t2)) {
if (debug_mode) printf("ERROR: Explode and implode are NOT inverse.\n");
return 1;
}
if (debug_mode) printf("Please examine the results\n");
testParseTimeString(t1);
}
/*
*******************************************
**
** Testing PR_NormalizeTime()
**
*******************************************
*/
/* July 4, 2001 is Wednesday */
{
PRExplodedTime et;
if (debug_mode) {
printf("\n");
printf("**********************************\n");
printf("** **\n");
printf("** Testing PR_NormalizeTime() **\n");
printf("** **\n");
printf("**********************************\n\n");
}
et.tm_year = 2001;
et.tm_month = 7 - 1;
et.tm_mday = 4;
et.tm_hour = 0;
et.tm_min = 0;
et.tm_sec = 0;
et.tm_usec = 0;
et.tm_params = PR_GMTParameters(&et);
PR_NormalizeTime(&et, PR_GMTParameters);
if (debug_mode) printf("July 4, 2001 is %s.\n", dayOfWeek[et.tm_wday]);
if (et.tm_wday == 3) {
if (debug_mode) printf("PASS\n");
} else {
if (debug_mode) printf("ERROR: It should be Wednesday\n");
else failed_already=1;
return 1;
}
testParseTimeString(PR_ImplodeTime(&et));
/* June 12, 1997 23:00 PST == June 13, 1997 00:00 PDT */
et.tm_year = 1997;
et.tm_month = 6 - 1;
et.tm_mday = 12;
et.tm_hour = 23;
et.tm_min = 0;
et.tm_sec = 0;
et.tm_usec = 0;
et.tm_params.tp_gmt_offset = -8 * 3600;
et.tm_params.tp_dst_offset = 0;
PR_NormalizeTime(&et, PR_USPacificTimeParameters);
if (debug_mode) {
printf("Thu Jun 12, 1997 23:00:00 PST is ");
}
printExplodedTime(&et);
if (debug_mode) printf(".\n");
if (et.tm_wday == 5) {
if (debug_mode) printf("PASS\n");
} else {
if (debug_mode) printf("ERROR: It should be Friday\n");
else failed_already=1;
return 1;
}
testParseTimeString(PR_ImplodeTime(&et));
/* Feb 14, 1997 00:00:00 PDT == Feb 13, 1997 23:00:00 PST */
et.tm_year = 1997;
et.tm_month = 2 - 1;
et.tm_mday = 14;
et.tm_hour = 0;
et.tm_min = 0;
et.tm_sec = 0;
et.tm_usec = 0;
et.tm_params.tp_gmt_offset = -8 * 3600;
et.tm_params.tp_dst_offset = 3600;
PR_NormalizeTime(&et, PR_USPacificTimeParameters);
if (debug_mode) {
printf("Fri Feb 14, 1997 00:00:00 PDT is ");
}
printExplodedTime(&et);
if (debug_mode) printf(".\n");
if (et.tm_wday == 4) {
if (debug_mode) printf("PASS\n");
} else {
if (debug_mode) printf("ERROR: It should be Thursday\n");
else failed_already=1;
return 1;
}
testParseTimeString(PR_ImplodeTime(&et));
/* What time is Nov. 7, 1996, 18:29:23 PDT? */
et.tm_year = 1996;
et.tm_month = 11 - 1;
et.tm_mday = 7;
et.tm_hour = 18;
et.tm_min = 29;
et.tm_sec = 23;
et.tm_usec = 0;
et.tm_params.tp_gmt_offset = -8 * 3600; /* PDT */
et.tm_params.tp_dst_offset = 3600;
PR_NormalizeTime(&et, PR_LocalTimeParameters);
if (debug_mode) printf("Nov 7 18:29:23 PDT 1996 is ");
printExplodedTime(&et);
if (debug_mode) printf(".\n");
testParseTimeString(PR_ImplodeTime(&et));
/* What time is Oct. 7, 1995, 18:29:23 PST? */
et.tm_year = 1995;
et.tm_month = 10 - 1;
et.tm_mday = 7;
et.tm_hour = 18;
et.tm_min = 29;
et.tm_sec = 23;
et.tm_params.tp_gmt_offset = -8 * 3600; /* PST */
et.tm_params.tp_dst_offset = 0;
PR_NormalizeTime(&et, PR_LocalTimeParameters);
if (debug_mode) printf("Oct 7 18:29:23 PST 1995 is ");
printExplodedTime(&et);
if (debug_mode) printf(".\n");
testParseTimeString(PR_ImplodeTime(&et));
if (debug_mode) printf("Please examine the results\n");
}
/*
**************************************************************
**
** Testing range of years
**
**************************************************************
*/
{
PRExplodedTime et1, et2;
PRTime ttt;
PRTime secs;
if (debug_mode) {
printf("\n");
printf("***************************************\n");
printf("** **\n");
printf("** Testing range of years **\n");
printf("** **\n");
printf("***************************************\n\n");
}
/* April 4, 1917 GMT */
et1.tm_usec = 0;
et1.tm_sec = 0;
et1.tm_min = 0;
et1.tm_hour = 0;
et1.tm_mday = 4;
et1.tm_month = 4 - 1;
et1.tm_year = 1917;
et1.tm_params = PR_GMTParameters(&et1);
PR_NormalizeTime(&et1, PR_LocalTimeParameters);
secs = PR_ImplodeTime(&et1);
if (LL_GE_ZERO(secs)) {
if (debug_mode)
printf("ERROR: April 4, 1917 GMT returns a nonnegative second count\n");
failed_already = 1;
return 1;
}
PR_ExplodeTime(secs, PR_LocalTimeParameters, &et2);
if (!explodedTimeIsEqual(&et1, &et2)) {
if (debug_mode)
printf("ERROR: PR_ImplodeTime and PR_ExplodeTime are not inverse for April 4, 1917 GMT\n");
failed_already=1;
return 1;
}
ttt = PR_ImplodeTime(&et1);
testParseTimeString( ttt );
if (debug_mode) printf("Test passed for April 4, 1917\n");
/* July 4, 2050 */
et1.tm_usec = 0;
et1.tm_sec = 0;
et1.tm_min = 0;
et1.tm_hour = 0;
et1.tm_mday = 4;
et1.tm_month = 7 - 1;
et1.tm_year = 2050;
et1.tm_params = PR_GMTParameters(&et1);
PR_NormalizeTime(&et1, PR_LocalTimeParameters);
secs = PR_ImplodeTime(&et1);
if (!LL_GE_ZERO(secs)) {
if (debug_mode)
printf("ERROR: July 4, 2050 GMT returns a negative second count\n");
failed_already = 1;
return 1;
}
PR_ExplodeTime(secs, PR_LocalTimeParameters, &et2);
if (!explodedTimeIsEqual(&et1, &et2)) {
if (debug_mode)
printf("ERROR: PR_ImplodeTime and PR_ExplodeTime are not inverse for July 4, 2050 GMT\n");
failed_already=1;
return 1;
}
testParseTimeString(PR_ImplodeTime(&et1));
if (debug_mode) printf("Test passed for July 4, 2050\n");
}
/*
**************************************************************
**
** Stress test
*
** Go through four years, starting from
** 00:00:00 PST Jan. 1, 1993, incrementing
** every 10 minutes.
**
**************************************************************
*/
{
PRExplodedTime et, et1, et2;
PRInt64 usecPer10Min;
int day, hour, min;
PRTime usecs;
int dstInEffect = 0;
if (debug_mode) {
printf("\n");
printf("*******************************************************\n");
printf("** **\n");
printf("** Stress test **\n");
printf("** Starting from midnight Jan. 1, 1993 PST, **\n");
printf("** going through four years in 10-minute increment **\n");
printf("** **\n");
printf("*******************************************************\n\n");
}
LL_I2L(usecPer10Min, 600000000L);
/* 00:00:00 PST Jan. 1, 1993 */
et.tm_usec = 0;
et.tm_sec = 0;
et.tm_min = 0;
et.tm_hour = 0;
et.tm_mday = 1;
et.tm_month = 0;
et.tm_year = 1993;
et.tm_params.tp_gmt_offset = -8 * 3600;
et.tm_params.tp_dst_offset = 0;
usecs = PR_ImplodeTime(&et);
for (day = 0; day < 4 * 365 + 1; day++) {
for (hour = 0; hour < 24; hour++) {
for (min = 0; min < 60; min += 10) {
LL_ADD(usecs, usecs, usecPer10Min);
PR_ExplodeTime(usecs, PR_USPacificTimeParameters, &et1);
et2 = et;
et2.tm_usec += 600000000L;
PR_NormalizeTime(&et2, PR_USPacificTimeParameters);
if (!explodedTimeIsEqual(&et1, &et2)) {
if (debug_mode) printf("ERROR: componentwise comparison failed\n");
printExplodedTime(&et1);
if (debug_mode) printf("\n");
printExplodedTime(&et2);
if (debug_mode) printf("\n");
failed_already=1;
return 1;
}
if (LL_NE(usecs, PR_ImplodeTime(&et1))) {
if (debug_mode)
printf("ERROR: PR_ExplodeTime and PR_ImplodeTime are not inverse\n");
printExplodedTime(&et1);
if (debug_mode) printf("\n");
failed_already=1;
return 1;
}
testParseTimeString(usecs);
if (!dstInEffect && et1.tm_params.tp_dst_offset) {
dstInEffect = 1;
if (debug_mode) printf("DST changeover from ");
printExplodedTime(&et);
if (debug_mode) printf(" to ");
printExplodedTime(&et1);
if (debug_mode) printf(".\n");
} else if (dstInEffect && !et1.tm_params.tp_dst_offset) {
dstInEffect = 0;
if (debug_mode) printf("DST changeover from ");
printExplodedTime(&et);
if (debug_mode) printf(" to ");
printExplodedTime(&et1);
if (debug_mode) printf(".\n");
}
et = et1;
}
}
}
if (debug_mode) printf("Test passed\n");
}
/* Same stress test, but with PR_LocalTimeParameters */
{
PRExplodedTime et, et1, et2;
PRInt64 usecPer10Min;
int day, hour, min;
PRTime usecs;
int dstInEffect = 0;
if (debug_mode) {
printf("\n");
printf("*******************************************************\n");
printf("** **\n");
printf("** Stress test **\n");
printf("** Starting from midnight Jan. 1, 1993 PST, **\n");
printf("** going through four years in 10-minute increment **\n");
printf("** **\n");
printf("*******************************************************\n\n");
}
LL_I2L(usecPer10Min, 600000000L);
/* 00:00:00 PST Jan. 1, 1993 */
et.tm_usec = 0;
et.tm_sec = 0;
et.tm_min = 0;
et.tm_hour = 0;
et.tm_mday = 1;
et.tm_month = 0;
et.tm_year = 1993;
et.tm_params.tp_gmt_offset = -8 * 3600;
et.tm_params.tp_dst_offset = 0;
usecs = PR_ImplodeTime(&et);
for (day = 0; day < 4 * 365 + 1; day++) {
for (hour = 0; hour < 24; hour++) {
for (min = 0; min < 60; min += 10) {
LL_ADD(usecs, usecs, usecPer10Min);
PR_ExplodeTime(usecs, PR_LocalTimeParameters, &et1);
et2 = et;
et2.tm_usec += 600000000L;
PR_NormalizeTime(&et2, PR_LocalTimeParameters);
if (!explodedTimeIsEqual(&et1, &et2)) {
if (debug_mode) printf("ERROR: componentwise comparison failed\n");
printExplodedTime(&et1);
if (debug_mode) printf("\n");
printExplodedTime(&et2);
if (debug_mode) printf("\n");
return 1;
}
if (LL_NE(usecs, PR_ImplodeTime(&et1))) {
printf("ERROR: PR_ExplodeTime and PR_ImplodeTime are not inverse\n");
printExplodedTime(&et1);
if (debug_mode) printf("\n");
failed_already=1;
return 1;
}
testParseTimeString(usecs);
if (!dstInEffect && et1.tm_params.tp_dst_offset) {
dstInEffect = 1;
if (debug_mode) printf("DST changeover from ");
printExplodedTime(&et);
if (debug_mode) printf(" to ");
printExplodedTime(&et1);
if (debug_mode) printf(".\n");
} else if (dstInEffect && !et1.tm_params.tp_dst_offset) {
dstInEffect = 0;
if (debug_mode) printf("DST changeover from ");
printExplodedTime(&et);
if (debug_mode) printf(" to ");
printExplodedTime(&et1);
if (debug_mode) printf(".\n");
}
et = et1;
}
}
}
if (debug_mode) printf("Test passed\n");
}
/* Same stress test, but with PR_LocalTimeParameters and going backward */
{
PRExplodedTime et, et1, et2;
PRInt64 usecPer10Min;
int day, hour, min;
PRTime usecs;
int dstInEffect = 0;
if (debug_mode) {
printf("\n");
printf("*******************************************************\n");
printf("** **\n");
printf("** Stress test **\n");
printf("** Starting from midnight Jan. 1, 1997 PST, **\n");
printf("** going back four years in 10-minute increment **\n");
printf("** **\n");
printf("*******************************************************\n\n");
}
LL_I2L(usecPer10Min, 600000000L);
/* 00:00:00 PST Jan. 1, 1997 */
et.tm_usec = 0;
et.tm_sec = 0;
et.tm_min = 0;
et.tm_hour = 0;
et.tm_mday = 1;
et.tm_month = 0;
et.tm_year = 1997;
et.tm_params.tp_gmt_offset = -8 * 3600;
et.tm_params.tp_dst_offset = 0;
usecs = PR_ImplodeTime(&et);
for (day = 0; day < 4 * 365 + 1; day++) {
for (hour = 0; hour < 24; hour++) {
for (min = 0; min < 60; min += 10) {
LL_SUB(usecs, usecs, usecPer10Min);
PR_ExplodeTime(usecs, PR_LocalTimeParameters, &et1);
et2 = et;
et2.tm_usec -= 600000000L;
PR_NormalizeTime(&et2, PR_LocalTimeParameters);
if (!explodedTimeIsEqual(&et1, &et2)) {
if (debug_mode) printf("ERROR: componentwise comparison failed\n");
printExplodedTime(&et1);
if (debug_mode) printf("\n");
printExplodedTime(&et2);
if (debug_mode) printf("\n");
return 1;
}
if (LL_NE(usecs, PR_ImplodeTime(&et1))) {
if (debug_mode)
printf("ERROR: PR_ExplodeTime and PR_ImplodeTime are not inverse\n");
printExplodedTime(&et1);
if (debug_mode) printf("\n");
failed_already=1;
return 1;
}
testParseTimeString(usecs);
if (!dstInEffect && et1.tm_params.tp_dst_offset) {
dstInEffect = 1;
if (debug_mode) printf("DST changeover from ");
printExplodedTime(&et);
if (debug_mode) printf(" to ");
printExplodedTime(&et1);
if (debug_mode) printf(".\n");
} else if (dstInEffect && !et1.tm_params.tp_dst_offset) {
dstInEffect = 0;
if (debug_mode) printf("DST changeover from ");
printExplodedTime(&et);
if (debug_mode) printf(" to ");
printExplodedTime(&et1);
if (debug_mode) printf(".\n");
}
et = et1;
}
}
}
}
if (failed_already) return 1;
else return 0;
}
static PRUint64
_pr_strtoull(const char *str, char **endptr, int base)
{
static const int BASE_MAX = 16;
static const char digits[] = "0123456789abcdef";
char *digitPtr;
PRUint64 x; /* return value */
PRInt64 base64;
const char *cPtr;
PRBool negative;
const char *digitStart;
PR_ASSERT(base == 0 || base == 8 || base == 10 || base == 16);
if (base < 0 || base == 1 || base > BASE_MAX) {
if (endptr) {
*endptr = (char *) str;
return LL_ZERO;
}
}
cPtr = str;
while (isspace(*cPtr)) {
++cPtr;
}
negative = PR_FALSE;
if (*cPtr == '-') {
negative = PR_TRUE;
cPtr++;
} else if (*cPtr == '+') {
cPtr++;
}
if (base == 16) {
if (*cPtr == '0' && (cPtr[1] == 'x' || cPtr[1] == 'X')) {
cPtr += 2;
}
} else if (base == 0) {
if (*cPtr != '0') {
base = 10;
} else if (cPtr[1] == 'x' || cPtr[1] == 'X') {
base = 16;
cPtr += 2;
} else {
base = 8;
}
}
PR_ASSERT(base != 0);
LL_I2L(base64, base);
digitStart = cPtr;
/* Skip leading zeros */
while (*cPtr == '0') {
cPtr++;
}
LL_I2L(x, 0);
while ((digitPtr = (char*)memchr(digits, tolower(*cPtr), base)) != NULL) {
PRUint64 d;
LL_I2L(d, (digitPtr - digits));
LL_MUL(x, x, base64);
LL_ADD(x, x, d);
cPtr++;
}
if (cPtr == digitStart) {
if (endptr) {
*endptr = (char *) str;
}
return LL_ZERO;
}
if (negative) {
#ifdef HAVE_LONG_LONG
/* The cast to a signed type is to avoid a compiler warning */
x = -(PRInt64)x;
#else
LL_NEG(x, x);
#endif
}
if (endptr) {
*endptr = (char *) cPtr;
}
return x;
}
static void triggered_list_add(pn_selector_t *selector, iocpdesc_t *iocpd)
{
if (iocpd->triggered_list_prev || selector->triggered_list_head == iocpd)
return; // already in list
LL_ADD(selector, triggered_list, iocpd);
}
