SECStatus ImportCRL (CERTCertDBHandle *certHandle, char *url, int type,
PRFileDesc *inFile, PRInt32 importOptions, PRInt32 decodeOptions)
{
CERTSignedCrl *crl = NULL;
SECItem crlDER;
PK11SlotInfo* slot = NULL;
int rv;
#if defined(DEBUG_jp96085)
PRIntervalTime starttime, endtime, elapsed;
PRUint32 mins, secs, msecs;
#endif
crlDER.data = NULL;
/* Read in the entire file specified with the -f argument */
rv = SECU_ReadDERFromFile(&crlDER, inFile, PR_FALSE);
if (rv != SECSuccess) {
SECU_PrintError(progName, "unable to read input file");
return (SECFailure);
}
decodeOptions |= CRL_DECODE_DONT_COPY_DER;
slot = PK11_GetInternalKeySlot();
#if defined(DEBUG_jp96085)
starttime = PR_IntervalNow();
#endif
crl = PK11_ImportCRL(slot, &crlDER, url, type,
NULL, importOptions, NULL, decodeOptions);
#if defined(DEBUG_jp96085)
endtime = PR_IntervalNow();
elapsed = endtime - starttime;
mins = PR_IntervalToSeconds(elapsed) / 60;
secs = PR_IntervalToSeconds(elapsed) % 60;
msecs = PR_IntervalToMilliseconds(elapsed) % 1000;
printf("Elapsed : %2d:%2d.%3d\n", mins, secs, msecs);
#endif
if (!crl) {
const char *errString;
rv = SECFailure;
errString = SECU_Strerror(PORT_GetError());
if ( errString && PORT_Strlen (errString) == 0)
SECU_PrintError (progName,
"CRL is not imported (error: input CRL is not up to date.)");
else
SECU_PrintError (progName, "unable to import CRL");
} else {
SEC_DestroyCrl (crl);
}
if (slot) {
PK11_FreeSlot(slot);
}
return (rv);
}
/* the main thread */
void infadd_start(void *v)
{
AddThread *at = (AddThread *)v;
PRIntervalTime timer;
PRUint32 span, i;
int notBound = 1;
int ret;
/* make the blob if necessary */
if (blobsize > 0) {
at->blob = (char *)malloc(blobsize);
if (! at->blob) {
fprintf(stderr, "T%d: can't allocate blob!\n", at->id);
return;
}
for (i = 0; i < blobsize; i++)
at->blob[i] = (char)(rand() & 0xff);
}
at->alive = 1;
while (1) {
timer = PR_IntervalNow();
/* bind if we need to */
if (notBound) {
at_bind(at);
if (noDelay)
at_enableTCPnodelay(at);
notBound = 0;
}
ret = at_add(at);
if (LDAP_SUCCESS == ret) {
span = PR_IntervalToMilliseconds(PR_IntervalNow()-timer);
/* update data */
PR_Lock(at->lock);
at->addCount++;
at->addTotal++;
if (at->mintime > span)
at->mintime = span;
if (at->maxtime < span)
at->maxtime = span;
at->alive = 1;
at->retry = 0;
PR_Unlock(at->lock);
} else if (LDAP_CONNECT_ERROR == ret && at->retry < 10) {
PR_Lock(at->lock);
at->retry++;
PR_Unlock(at->lock);
} else {
at_bail(at);
return;
}
}
}
static void WaitMonitorThread(void *arg)
{
PRIntervalTime timeout = (PRIntervalTime) arg;
PRIntervalTime elapsed;
#if defined(XP_UNIX) || defined(WIN32)
PRInt32 timeout_msecs = PR_IntervalToMilliseconds(timeout);
PRInt32 elapsed_msecs;
#endif
#if defined(XP_UNIX)
struct timeval end_time_tv;
#endif
#if defined(WIN32) && !defined(WINCE)
struct _timeb end_time_tb;
#endif
PRMonitor *mon;
mon = PR_NewMonitor();
if (mon == NULL) {
fprintf(stderr, "PR_NewMonitor failed\n");
exit(1);
}
PR_EnterMonitor(mon);
PR_Wait(mon, timeout);
PR_ExitMonitor(mon);
elapsed = (PRIntervalTime)(PR_IntervalNow() - start_time);
if (elapsed + tolerance < timeout || elapsed > timeout + tolerance) {
fprintf(stderr, "timeout wrong\n");
exit(1);
}
#if defined(XP_UNIX)
gettimeofday(&end_time_tv, NULL);
elapsed_msecs = 1000*(end_time_tv.tv_sec - start_time_tv.tv_sec)
+ (end_time_tv.tv_usec - start_time_tv.tv_usec)/1000;
#endif
#if defined(WIN32)
#if defined(WINCE)
elapsed_msecs = GetTickCount() - start_time_tick;
#else
_ftime(&end_time_tb);
elapsed_msecs = 1000*(end_time_tb.time - start_time_tb.time)
+ (end_time_tb.millitm - start_time_tb.millitm);
#endif
#endif
#if defined(XP_UNIX) || defined(WIN32)
if (elapsed_msecs + tolerance_msecs < timeout_msecs
|| elapsed_msecs > timeout_msecs + tolerance_msecs) {
fprintf(stderr, "timeout wrong\n");
exit(1);
}
#endif
PR_DestroyMonitor(mon);
if (debug_mode) {
fprintf(stderr, "wait monitor thread (scope %d) done\n",
PR_GetThreadScope(PR_GetCurrentThread()));
}
}
static void run_test(const char *testname, int count, void (* testfunc)())
{
PRIntervalTime start, end;
start = PR_IntervalNow();
for (; count; --count)
testfunc();
end = PR_IntervalNow();
printf("completed %s test in %u milliseconds\n", testname,
PR_IntervalToMilliseconds(end - start));
}
PRStatus
_PR_MD_TIMED_WAIT_SEM(_MDSemaphore *md, PRIntervalTime ticks)
{
int rv;
rv = DosWaitEventSem(md->sem, PR_IntervalToMilliseconds(ticks));
if (rv == NO_ERROR)
return PR_SUCCESS;
else
return PR_FAILURE;
}
void TransportLayerDtls::Handshake() {
// Clear the retransmit timer
timer_->Cancel();
SECStatus rv = SSL_ForceHandshake(ssl_fd_);
if (rv == SECSuccess) {
MOZ_MTLOG(ML_NOTICE,
LAYER_INFO << "****** SSL handshake completed ******");
if (!cert_ok_) {
MOZ_MTLOG(ML_ERROR, LAYER_INFO << "Certificate check never occurred");
TL_SET_STATE(TS_ERROR);
return;
}
if (!CheckAlpn()) {
// Despite connecting, the connection doesn't have a valid ALPN label.
// Forcibly close the connection so that the peer isn't left hanging
// (assuming the close_notify isn't dropped).
ssl_fd_ = nullptr;
TL_SET_STATE(TS_ERROR);
return;
}
TL_SET_STATE(TS_OPEN);
} else {
int32_t err = PR_GetError();
switch(err) {
case SSL_ERROR_RX_MALFORMED_HANDSHAKE:
MOZ_MTLOG(ML_ERROR, LAYER_INFO << "Malformed DTLS message; ignoring");
// If this were TLS (and not DTLS), this would be fatal, but
// here we're required to ignore bad messages, so fall through
MOZ_FALLTHROUGH;
case PR_WOULD_BLOCK_ERROR:
MOZ_MTLOG(ML_NOTICE, LAYER_INFO << "Handshake would have blocked");
PRIntervalTime timeout;
rv = DTLS_GetHandshakeTimeout(ssl_fd_, &timeout);
if (rv == SECSuccess) {
uint32_t timeout_ms = PR_IntervalToMilliseconds(timeout);
MOZ_MTLOG(ML_DEBUG,
LAYER_INFO << "Setting DTLS timeout to " << timeout_ms);
timer_->SetTarget(target_);
timer_->InitWithFuncCallback(TimerCallback,
this, timeout_ms,
nsITimer::TYPE_ONE_SHOT);
}
break;
default:
MOZ_MTLOG(ML_ERROR, LAYER_INFO << "SSL handshake error "<< err);
TL_SET_STATE(TS_ERROR);
break;
}
}
}
PRInt32
nsSocketTransportService::Poll(PRBool wait, PRUint32 *interval)
{
PRPollDesc *pollList;
PRUint32 pollCount;
PRIntervalTime pollTimeout;
if (mPollList[0].fd) {
mPollList[0].out_flags = 0;
pollList = mPollList;
pollCount = mActiveCount + 1;
pollTimeout = PollTimeout();
}
else {
// no pollable event, so busy wait...
pollCount = mActiveCount;
if (pollCount)
pollList = &mPollList[1];
else
pollList = nsnull;
pollTimeout = PR_MillisecondsToInterval(25);
}
if (!wait)
pollTimeout = PR_INTERVAL_NO_WAIT;
PRIntervalTime ts = PR_IntervalNow();
LOG((" timeout = %i milliseconds\n",
PR_IntervalToMilliseconds(pollTimeout)));
PRInt32 rv = PR_Poll(pollList, pollCount, pollTimeout);
PRIntervalTime passedInterval = PR_IntervalNow() - ts;
LOG((" ...returned after %i milliseconds\n",
PR_IntervalToMilliseconds(passedInterval)));
*interval = PR_IntervalToSeconds(passedInterval);
return rv;
}
void TransportLayerDtls::Handshake() {
SetState(TS_CONNECTING);
// Clear the retransmit timer
timer_->Cancel();
SECStatus rv = SSL_ForceHandshake(ssl_fd_);
if (rv == SECSuccess) {
MOZ_MTLOG(PR_LOG_NOTICE, LAYER_INFO << "****** SSL handshake completed ******");
if (!cert_ok_) {
MOZ_MTLOG(PR_LOG_ERROR, LAYER_INFO << "Certificate check never occurred");
SetState(TS_ERROR);
return;
}
SetState(TS_OPEN);
} else {
int32_t err = PR_GetError();
switch(err) {
case SSL_ERROR_RX_MALFORMED_HANDSHAKE:
if (mode_ != DGRAM) {
MOZ_MTLOG(PR_LOG_ERROR, LAYER_INFO << "Malformed TLS message");
SetState(TS_ERROR);
} else {
MOZ_MTLOG(PR_LOG_ERROR, LAYER_INFO << "Malformed DTLS message; ignoring");
}
// Fall through
case PR_WOULD_BLOCK_ERROR:
MOZ_MTLOG(PR_LOG_NOTICE, LAYER_INFO << "Would have blocked");
if (mode_ == DGRAM) {
PRIntervalTime timeout;
rv = DTLS_GetHandshakeTimeout(ssl_fd_, &timeout);
if (rv == SECSuccess) {
uint32_t timeout_ms = PR_IntervalToMilliseconds(timeout);
MOZ_MTLOG(PR_LOG_DEBUG, LAYER_INFO << "Setting DTLS timeout to " <<
timeout_ms);
timer_->SetTarget(target_);
timer_->InitWithFuncCallback(TimerCallback,
this, timeout_ms,
nsITimer::TYPE_ONE_SHOT);
}
}
break;
default:
MOZ_MTLOG(PR_LOG_ERROR, LAYER_INFO << "SSL handshake error "<< err);
SetState(TS_ERROR);
break;
}
}
}
static void PR_CALLBACK Servette(void *arg)
{
PRInt32 bytes, sampled;
PRIntervalTime now, interval;
PRBool do_display = PR_FALSE;
PRFileDesc *client = (PRFileDesc*)arg;
char *buffer = (char*)PR_Malloc(buffer_size);
PRIntervalTime sampling_interval = PR_SecondsToInterval(SAMPLING_INTERVAL);
if (xport_buffer != -1)
{
PRStatus rv;
PRSocketOptionData data;
data.option = PR_SockOpt_RecvBufferSize;
data.value.recv_buffer_size = (PRSize)xport_buffer;
rv = PR_SetSocketOption(client, &data);
if (PR_FAILURE == rv)
PL_FPrintError(err, "PR_SetSocketOption - ignored");
data.option = PR_SockOpt_SendBufferSize;
data.value.send_buffer_size = (PRSize)xport_buffer;
rv = PR_SetSocketOption(client, &data);
if (PR_FAILURE == rv)
PL_FPrintError(err, "PR_SetSocketOption - ignored");
}
do
{
bytes = PR_Send(
client, buffer, buffer_size, 0, PR_INTERVAL_NO_TIMEOUT);
PR_Lock(shared->ml);
now = PR_IntervalNow();
shared->sampled += bytes;
interval = now - shared->timein;
if (interval > sampling_interval)
{
sampled = shared->sampled;
shared->timein = now;
shared->sampled = 0;
do_display = PR_TRUE;
}
PR_Unlock(shared->ml);
if (do_display)
{
PRUint32 rate = sampled / PR_IntervalToMilliseconds(interval);
PR_fprintf(err, "%u streams @ %u Kbytes/sec\n", shared->threads, rate);
do_display = PR_FALSE;
}
} while (bytes > 0);
} /* Servette */
void
NotifyActivity(ActivityType aActivityType)
{
MOZ_ASSERT(NS_IsMainThread(),
"HangMonitor::Notify called from off the main thread.");
// Determine the activity type more specifically
if (aActivityType == kGeneralActivity) {
aActivityType = IsUIMessageWaiting() ? kActivityUIAVail :
kActivityNoUIAVail;
}
// Calculate the cumulative amount of lag time since the last UI message
static uint32_t cumulativeUILagMS = 0;
switch (aActivityType) {
case kActivityNoUIAVail:
cumulativeUILagMS = 0;
break;
case kActivityUIAVail:
case kUIActivity:
if (gTimestamp != PR_INTERVAL_NO_WAIT) {
cumulativeUILagMS += PR_IntervalToMilliseconds(PR_IntervalNow() -
gTimestamp);
}
break;
default:
break;
}
// This is not a locked activity because PRTimeStamp is a 32-bit quantity
// which can be read/written atomically, and we don't want to pay locking
// penalties here.
gTimestamp = PR_IntervalNow();
// If we have UI activity we should reset the timer and report it if it is
// significant enough.
if (aActivityType == kUIActivity) {
// The minimum amount of lag time that we should report for telemetry data.
// Mozilla's UI responsiveness goal is 50ms
static const uint32_t kUIResponsivenessThresholdMS = 50;
if (cumulativeUILagMS > kUIResponsivenessThresholdMS) {
mozilla::Telemetry::Accumulate(mozilla::Telemetry::EVENTLOOP_UI_LAG_EXP_MS,
cumulativeUILagMS);
}
cumulativeUILagMS = 0;
}
if (gThread && !gShutdown) {
mozilla::BackgroundHangMonitor().NotifyActivity();
}
}
static void SleepThread(void *arg)
{
PRIntervalTime timeout = (PRIntervalTime) arg;
PRIntervalTime elapsed;
#if defined(XP_UNIX) || defined(WIN32)
PRInt32 timeout_msecs = PR_IntervalToMilliseconds(timeout);
PRInt32 elapsed_msecs;
#endif
#if defined(XP_UNIX)
struct timeval end_time_tv;
#endif
#if defined(WIN32) && !defined(WINCE)
struct _timeb end_time_tb;
#endif
if (PR_Sleep(timeout) == PR_FAILURE) {
fprintf(stderr, "PR_Sleep failed\n");
exit(1);
}
elapsed = (PRIntervalTime)(PR_IntervalNow() - start_time);
if (elapsed + tolerance < timeout || elapsed > timeout + tolerance) {
fprintf(stderr, "timeout wrong\n");
exit(1);
}
#if defined(XP_UNIX)
gettimeofday(&end_time_tv, NULL);
elapsed_msecs = 1000*(end_time_tv.tv_sec - start_time_tv.tv_sec)
+ (end_time_tv.tv_usec - start_time_tv.tv_usec)/1000;
#endif
#if defined(WIN32)
#if defined(WINCE)
elapsed_msecs = GetTickCount() - start_time_tick;
#else
_ftime(&end_time_tb);
elapsed_msecs = 1000*(end_time_tb.time - start_time_tb.time)
+ (end_time_tb.millitm - start_time_tb.millitm);
#endif
#endif
#if defined(XP_UNIX) || defined(WIN32)
if (elapsed_msecs + tolerance_msecs < timeout_msecs
|| elapsed_msecs > timeout_msecs + tolerance_msecs) {
fprintf(stderr, "timeout wrong\n");
exit(1);
}
#endif
if (debug_mode) {
fprintf(stderr, "Sleep thread (scope %d) done\n",
PR_GetThreadScope(PR_GetCurrentThread()));
}
}
uint32_t
timer_list_time_to_expire_ms(struct timer_list *tlist)
{
struct timer_list_entry *entry;
uint32_t u32;
entry = TAILQ_FIRST(&tlist->list);
if (entry == NULL) {
u32 = ~((uint32_t)0);
return (u32);
}
return (PR_IntervalToMilliseconds(timer_list_entry_time_to_expire(entry, PR_IntervalNow())));
}
static void Measure(void (*func)(void), const char *msg)
{
PRIntervalTime start, stop;
double d;
PRInt32 tot;
start = PR_IntervalNow();
(*func)();
stop = PR_IntervalNow();
d = (double)PR_IntervalToMicroseconds(stop - start);
tot = PR_IntervalToMilliseconds(stop-start);
if (debug_mode) printf("%40s: %6.2f usec avg, %d msec total\n", msg, d / count, tot);
}
static void TestConversions(void)
{
PRIntervalTime ticks = PR_TicksPerSecond();
if (debug_mode) {
PR_fprintf(output, "PR_TicksPerSecond: %ld\n\n", ticks);
PR_fprintf(output, "PR_SecondsToInterval(1): %ld\n", PR_SecondsToInterval(1));
PR_fprintf(output, "PR_MillisecondsToInterval(1000): %ld\n", PR_MillisecondsToInterval(1000));
PR_fprintf(output, "PR_MicrosecondsToInterval(1000000): %ld\n\n", PR_MicrosecondsToInterval(1000000));
PR_fprintf(output, "PR_SecondsToInterval(3): %ld\n", PR_SecondsToInterval(3));
PR_fprintf(output, "PR_MillisecondsToInterval(3000): %ld\n", PR_MillisecondsToInterval(3000));
PR_fprintf(output, "PR_MicrosecondsToInterval(3000000): %ld\n\n", PR_MicrosecondsToInterval(3000000));
PR_fprintf(output, "PR_IntervalToSeconds(%ld): %ld\n", ticks, PR_IntervalToSeconds(ticks));
PR_fprintf(output, "PR_IntervalToMilliseconds(%ld): %ld\n", ticks, PR_IntervalToMilliseconds(ticks));
PR_fprintf(output, "PR_IntervalToMicroseconds(%ld): %ld\n\n", ticks, PR_IntervalToMicroseconds(ticks));
ticks *= 3;
PR_fprintf(output, "PR_IntervalToSeconds(%ld): %ld\n", ticks, PR_IntervalToSeconds(ticks));
PR_fprintf(output, "PR_IntervalToMilliseconds(%ld): %ld\n", ticks, PR_IntervalToMilliseconds(ticks));
PR_fprintf(output, "PR_IntervalToMicroseconds(%ld): %ld\n\n", ticks, PR_IntervalToMicroseconds(ticks));
} /*end debug mode */
} /* TestConversions */
void
SpdySession31::PrintDiagnostics(nsCString &log)
{
log.AppendPrintf(" ::: SPDY VERSION 3.1\n");
log.AppendPrintf(" shouldgoaway = %d mClosed = %d CanReuse = %d nextID=0x%X\n",
mShouldGoAway, mClosed, CanReuse(), mNextStreamID);
log.AppendPrintf(" concurrent = %d maxconcurrent = %d\n",
mConcurrent, mMaxConcurrent);
log.AppendPrintf(" roomformorestreams = %d roomformoreconcurrent = %d\n",
RoomForMoreStreams(), RoomForMoreConcurrent());
log.AppendPrintf(" transactionHashCount = %d streamIDHashCount = %d\n",
mStreamTransactionHash.Count(),
mStreamIDHash.Count());
log.AppendPrintf(" Queued Stream Size = %d\n", mQueuedStreams.GetSize());
PRIntervalTime now = PR_IntervalNow();
log.AppendPrintf(" Ping Threshold = %ums next ping id = 0x%X\n",
PR_IntervalToMilliseconds(mPingThreshold),
mNextPingID);
log.AppendPrintf(" Ping Timeout = %ums\n",
PR_IntervalToMilliseconds(gHttpHandler->SpdyPingTimeout()));
log.AppendPrintf(" Idle for Any Activity (ping) = %ums\n",
PR_IntervalToMilliseconds(now - mLastReadEpoch));
log.AppendPrintf(" Idle for Data Activity = %ums\n",
PR_IntervalToMilliseconds(now - mLastDataReadEpoch));
if (mPingSentEpoch)
log.AppendPrintf(" Ping Outstanding (ping) = %ums, expired = %d\n",
PR_IntervalToMilliseconds(now - mPingSentEpoch),
now - mPingSentEpoch >= gHttpHandler->SpdyPingTimeout());
else
log.AppendPrintf(" No Ping Outstanding\n");
}
nsresult
TestPipe(nsIInputStream* in, nsIOutputStream* out)
{
nsresult rv;
nsIThread* thread;
nsReceiver* receiver = new nsReceiver(in);
if (receiver == nsnull) return NS_ERROR_OUT_OF_MEMORY;
NS_ADDREF(receiver);
rv = NS_NewThread(&thread, receiver);
if (NS_FAILED(rv)) return rv;
PRUint32 total = 0;
PRIntervalTime start = PR_IntervalNow();
for (PRUint32 i = 0; i < ITERATIONS; i++) {
PRUint32 writeCount;
char *buf = PR_smprintf("%d %s", i, kTestPattern);
PRUint32 len = strlen(buf);
rv = WriteAll(out, buf, len, &writeCount);
if (gTrace) {
printf("wrote: ");
for (PRUint32 j = 0; j < writeCount; j++) {
putc(buf[j], stdout);
}
printf("\n");
}
PR_smprintf_free(buf);
if (NS_FAILED(rv)) return rv;
total += writeCount;
}
rv = out->Close();
if (NS_FAILED(rv)) return rv;
PRIntervalTime end = PR_IntervalNow();
thread->Shutdown();
printf("wrote %d bytes, time = %dms\n", total,
PR_IntervalToMilliseconds(end - start));
NS_ASSERTION(receiver->GetBytesRead() == total, "didn't read everything");
NS_RELEASE(thread);
NS_RELEASE(receiver);
return NS_OK;
}
static void WaitCMonitorThread(void *arg)
{
PRIntervalTime timeout = (PRIntervalTime) arg;
PRIntervalTime elapsed;
#if defined(XP_UNIX) || defined(WIN32)
PRInt32 timeout_msecs = PR_IntervalToMilliseconds(timeout);
PRInt32 elapsed_msecs;
#endif
#if defined(XP_UNIX)
struct timeval end_time_tv;
#endif
#if defined(WIN32)
struct _timeb end_time_tb;
#endif
int dummy;
PR_CEnterMonitor(&dummy);
PR_CWait(&dummy, timeout);
PR_CExitMonitor(&dummy);
elapsed = (PRIntervalTime)(PR_IntervalNow() - start_time);
if (elapsed + tolerance < timeout || elapsed > timeout + tolerance) {
fprintf(stderr, "timeout wrong\n");
exit(1);
}
#if defined(XP_UNIX)
gettimeofday(&end_time_tv, NULL);
elapsed_msecs = 1000*(end_time_tv.tv_sec - start_time_tv.tv_sec)
+ (end_time_tv.tv_usec - start_time_tv.tv_usec)/1000;
#endif
#if defined(WIN32)
_ftime(&end_time_tb);
elapsed_msecs = 1000*(end_time_tb.time - start_time_tb.time)
+ (end_time_tb.millitm - start_time_tb.millitm);
#endif
#if defined(XP_UNIX) || defined(WIN32)
if (elapsed_msecs + tolerance_msecs < timeout_msecs
|| elapsed_msecs > timeout_msecs + tolerance_msecs) {
fprintf(stderr, "timeout wrong\n");
exit(1);
}
#endif
if (debug_mode) {
fprintf(stderr, "wait cached monitor thread (scope %d) done\n",
PR_GetThreadScope(PR_GetCurrentThread()));
}
}
//-----------------------------------------------------------------------------
// FcgiServerChannel::connect
//-----------------------------------------------------------------------------
PRStatus FcgiServerChannel::connect(PRIntervalTime timeoutVal)
{
// Try to connect
#ifdef XP_WIN32
if (config->udsName) {
PRBool pipeBusy = PR_TRUE;
while(pipeBusy) {
HANDLE newFd = CreateFile(config->procInfo.bindPath, // pipe name
GENERIC_READ | GENERIC_WRITE, // read and write access
FILE_SHARE_WRITE | FILE_SHARE_READ, // sharing
NULL, // default security attributes
OPEN_ALWAYS, // opens existing pipe or creates a new one
FILE_FLAG_OVERLAPPED, // default attributes
NULL); // no template file
// Break if the pipe handle is valid.
if (newFd != INVALID_HANDLE_VALUE) {
fd = PR_ImportFile((int)newFd);
return PR_SUCCESS;
}
if (!WaitNamedPipe(config->procInfo.bindPath, PR_IntervalToMilliseconds(timeoutVal))) {
return PR_FAILURE;
}
if (GetLastError() != ERROR_PIPE_BUSY) {
pipeBusy = PR_FALSE;
}
}
return PR_FAILURE;
} else {
#endif // XP_WIN32
if (!fd)
return PR_FAILURE;
PRStatus rv = PR_Connect(fd, &(config->procInfo.addr), timeoutVal);
return rv;
#ifdef XP_WIN32
}
#endif // XP_WIN32
}
int
main (int argc, char **argv) {
#ifdef MOZ_WIDGET_GTK2
gtk_init(&argc, &argv);
#endif
#ifdef XP_MACOSX
CocoaPoolInit();
#endif
// Initialize XPCOM
nsresult rv = NS_InitXPCOM2(nsnull, nsnull, nsnull);
if (NS_FAILED(rv))
return -1;
rv = gfxPlatform::Init();
if (NS_FAILED(rv))
return -1;
// let's get all the xpcom goop out of the system
fflush (stderr);
fflush (stdout);
nsRefPtr<gfxContext> context = MakeContext();
// Start timing
PRIntervalTime start = PR_IntervalNow();
for (PRUint32 i = 0; i < iterations; ++i) {
for (uint test = 0;
test < NS_ARRAY_LENGTH(testList) - 1;
test++)
{
RunTest(&testList[test], context);
}
}
PRIntervalTime end = PR_IntervalNow();
printf("Elapsed time (ms): %d\n", PR_IntervalToMilliseconds(end - start));
fflush (stderr);
fflush (stdout);
}
int main(int argc, char **argv)
{
PRThread *thread;
PRIntervalTime start, end;
PRUint32 elapsed_ms;
lock1 = PR_NewLock();
PR_ASSERT(NULL != lock1);
cv1 = PR_NewCondVar(lock1);
PR_ASSERT(NULL != cv1);
lock2 = PR_NewLock();
PR_ASSERT(NULL != lock2);
cv2 = PR_NewCondVar(lock2);
PR_ASSERT(NULL != cv2);
start = PR_IntervalNow();
thread = PR_CreateThread(
PR_USER_THREAD,
ThreadFunc,
NULL,
PR_PRIORITY_NORMAL,
PR_LOCAL_THREAD,
PR_JOINABLE_THREAD,
0);
PR_ASSERT(NULL != thread);
PR_Lock(lock2);
PR_WaitCondVar(cv2, PR_MillisecondsToInterval(LONG_TIMEOUT));
PR_Unlock(lock2);
PR_JoinThread(thread);
end = PR_IntervalNow();
elapsed_ms = PR_IntervalToMilliseconds((PRIntervalTime)(end - start));
/* Allow 100ms imprecision */
if (elapsed_ms < LONG_TIMEOUT - 100 || elapsed_ms > LONG_TIMEOUT + 100) {
printf("Elapsed time should be %u ms but is %u ms\n",
LONG_TIMEOUT, elapsed_ms);
printf("FAIL\n");
exit(1);
}
printf("Elapsed time: %u ms, expected time: %u ms\n",
LONG_TIMEOUT, elapsed_ms);
printf("PASS\n");
return 0;
}
PRStatus
_PR_MD_WAIT(PRThread *thread, PRIntervalTime ticks)
{
PRInt32 rv;
ULONG count;
PRUint32 msecs = (ticks == PR_INTERVAL_NO_TIMEOUT) ?
SEM_INDEFINITE_WAIT : PR_IntervalToMilliseconds(ticks);
rv = DosWaitEventSem(thread->md.blocked_sema, msecs);
DosResetEventSem(thread->md.blocked_sema, &count);
switch(rv)
{
case NO_ERROR:
return PR_SUCCESS;
break;
case ERROR_TIMEOUT:
_PR_THREAD_LOCK(thread);
if (thread->state == _PR_IO_WAIT) {
;
} else {
if (thread->wait.cvar != NULL) {
thread->wait.cvar = NULL;
_PR_THREAD_UNLOCK(thread);
} else {
/* The CVAR was notified just as the timeout
* occurred. This led to us being notified twice.
* call SemRequest() to clear the semaphore.
*/
_PR_THREAD_UNLOCK(thread);
rv = DosWaitEventSem(thread->md.blocked_sema, 0);
DosResetEventSem(thread->md.blocked_sema, &count);
PR_ASSERT(rv == NO_ERROR);
}
}
return PR_SUCCESS;
break;
default:
break;
}
return PR_FAILURE;
}
nsresult
Classifier::ApplyUpdates(nsTArray<TableUpdate*>* aUpdates)
{
Telemetry::AutoTimer<Telemetry::URLCLASSIFIER_CL_UPDATE_TIME> timer;
#if defined(PR_LOGGING)
PRIntervalTime clockStart = 0;
if (LOG_ENABLED() || true) {
clockStart = PR_IntervalNow();
}
#endif
LOG(("Applying table updates."));
nsresult rv;
for (uint32 i = 0; i < aUpdates->Length(); i++) {
// Previous ApplyTableUpdates() may have consumed this update..
if ((*aUpdates)[i]) {
// Run all updates for one table
rv = ApplyTableUpdates(aUpdates, aUpdates->ElementAt(i)->TableName());
if (NS_FAILED(rv)) {
Reset();
return rv;
}
}
}
aUpdates->Clear();
RegenActiveTables();
LOG(("Done applying updates."));
#if defined(PR_LOGGING)
if (LOG_ENABLED() || true) {
PRIntervalTime clockEnd = PR_IntervalNow();
LOG(("update took %dms\n",
PR_IntervalToMilliseconds(clockEnd - clockStart)));
}
#endif
return NS_OK;
}
void TestLongHostname()
{
static const int kTestSize = 1024 * 150;
char *str = static_cast<char*>(malloc(kTestSize + 1));
memset(str, 'x', kTestSize);
str[kTestSize] = '\0';
nsUrlClassifierUtils utils;
utils.Init();
nsCAutoString out;
nsDependentCString in(str);
PRIntervalTime clockStart = PR_IntervalNow();
utils.CanonicalizeHostname(in, out);
PRIntervalTime clockEnd = PR_IntervalNow();
CheckEquals(in, out);
printf("CanonicalizeHostname on long string (%dms)\n",
PR_IntervalToMilliseconds(clockEnd - clockStart));
}
NS_IMETHODIMP nsTimerEvent::Run()
{
nsRefPtr<nsTimerImpl> timer;
timer.swap(mTimer);
if (mGeneration != timer->GetGeneration())
return NS_OK;
#ifdef DEBUG_TIMERS
if (PR_LOG_TEST(gTimerLog, PR_LOG_DEBUG)) {
PRIntervalTime now = PR_IntervalNow();
PR_LOG(gTimerLog, PR_LOG_DEBUG,
("[this=%p] time between PostTimerEvent() and Fire(): %dms\n",
this, PR_IntervalToMilliseconds(now - mInitTime)));
}
#endif
timer->Fire();
return NS_OK;
}
int
main(int argc, char* argv[])
{
nsresult rv;
{
nsCOMPtr<nsILocalFile> topDir;
nsCOMPtr<nsIServiceManager> servMan;
rv = NS_InitXPCOM2(getter_AddRefs(servMan), nsnull, nsnull);
if (NS_FAILED(rv)) return -1;
nsCOMPtr<nsIComponentRegistrar> registrar = do_QueryInterface(servMan);
NS_ASSERTION(registrar, "Null nsIComponentRegistrar");
if (registrar)
registrar->AutoRegister(nsnull);
if (argc > 1 && argv[1] != nsnull)
{
char* pathStr = argv[1];
NS_NewNativeLocalFile(nsDependentCString(pathStr), PR_FALSE, getter_AddRefs(topDir));
}
if (!topDir)
{
printf("No Top Dir\n");
return -1;
}
PRInt32 startTime = PR_IntervalNow();
LoopInDir(topDir);
PRInt32 endTime = PR_IntervalNow();
printf("\nTime: %d\n", PR_IntervalToMilliseconds(endTime - startTime));
} // this scopes the nsCOMPtrs
// no nsCOMPtrs are allowed to be alive when you call NS_ShutdownXPCOM
rv = NS_ShutdownXPCOM(nsnull);
NS_ASSERTION(NS_SUCCEEDED(rv), "NS_ShutdownXPCOM failed");
return 0;
}
PRStatus
_PR_MD_WAIT(PRThread *thread, PRIntervalTime ticks)
{
DWORD rv;
PRUint32 msecs = (ticks == PR_INTERVAL_NO_TIMEOUT) ?
INFINITE : PR_IntervalToMilliseconds(ticks);
rv = WaitForSingleObject(thread->md.blocked_sema, msecs);
switch(rv)
{
case WAIT_OBJECT_0:
return PR_SUCCESS;
break;
case WAIT_TIMEOUT:
_PR_THREAD_LOCK(thread);
if (thread->state == _PR_IO_WAIT) {
;
} else {
if (thread->wait.cvar != NULL) {
thread->wait.cvar = NULL;
_PR_THREAD_UNLOCK(thread);
} else {
/* The CVAR was notified just as the timeout
* occurred. This led to us being notified twice.
* call WaitForSingleObject() to clear the semaphore.
*/
_PR_THREAD_UNLOCK(thread);
rv = WaitForSingleObject(thread->md.blocked_sema, 0);
PR_ASSERT(rv == WAIT_OBJECT_0);
}
}
return PR_SUCCESS;
break;
default:
return PR_FAILURE;
break;
}
}
/* Allocate alot of garbage */
static void PR_CALLBACK AllocStuff(void *unused) {
PRInt32 i;
void* danglingRefs[50];
PRIntervalTime start, end;
char msg[100];
start = PR_IntervalNow();
for (i = 0; i < loops; i++) {
void* p;
if (i & 1) {
Type1* t1 = NewType1();
t1->atwo = NewType2();
t1->next = NewType1();
t1->atwo->buf = NewBuffer(100);
p = t1;
} else {
Type2* t2 = NewType2();
t2->buf = NewBuffer(i & 16383);
p = t2;
}
if ((i % 10) == 0) {
memmove(&danglingRefs[0], &danglingRefs[1], 49*sizeof(void*));
danglingRefs[49] = p;
}
}
end = PR_IntervalNow();
if (debug_mode) PR_snprintf(msg, sizeof(msg), "Thread %p: %ld allocations took %ld ms",
PR_GetCurrentThread(), loops,
PR_IntervalToMilliseconds((PRIntervalTime) (end - start)));
PR_Lock(stderrLock);
#ifndef XP_MAC
fprintf(stderr, "%s\n", msg);
#else
if (debug_mode) printf("%s\n", msg);
#endif
PR_Unlock(stderrLock);
}
void nsTimerImpl::Fire()
{
if (mCanceled)
return;
PRIntervalTime now = PR_IntervalNow();
#ifdef DEBUG_TIMERS
if (PR_LOG_TEST(gTimerLog, PR_LOG_DEBUG)) {
PRIntervalTime a = now - mStart; // actual delay in intervals
PRUint32 b = PR_MillisecondsToInterval(mDelay); // expected delay in intervals
PRUint32 d = PR_IntervalToMilliseconds((a > b) ? a - b : b - a); // delta in ms
sDeltaSum += d;
sDeltaSumSquared += double(d) * double(d);
sDeltaNum++;
PR_LOG(gTimerLog, PR_LOG_DEBUG, ("[this=%p] expected delay time %4dms\n", this, mDelay));
PR_LOG(gTimerLog, PR_LOG_DEBUG, ("[this=%p] actual delay time %4dms\n", this, PR_IntervalToMilliseconds(a)));
PR_LOG(gTimerLog, PR_LOG_DEBUG, ("[this=%p] (mType is %d) -------\n", this, mType));
PR_LOG(gTimerLog, PR_LOG_DEBUG, ("[this=%p] delta %4dms\n", this, (a > b) ? (PRInt32)d : -(PRInt32)d));
mStart = mStart2;
mStart2 = 0;
}
#endif
PRIntervalTime timeout = mTimeout;
if (mType == TYPE_REPEATING_PRECISE) {
// Precise repeating timers advance mTimeout by mDelay without fail before
// calling Fire().
timeout -= PR_MillisecondsToInterval(mDelay);
}
if (gThread)
gThread->UpdateFilter(mDelay, timeout, now);
if (mCallbackType == CALLBACK_TYPE_INTERFACE)
mTimerCallbackWhileFiring = mCallback.i;
mFiring = PR_TRUE;
// Handle callbacks that re-init the timer, but avoid leaking.
// See bug 330128.
CallbackUnion callback = mCallback;
PRUintn callbackType = mCallbackType;
if (callbackType == CALLBACK_TYPE_INTERFACE)
NS_ADDREF(callback.i);
else if (callbackType == CALLBACK_TYPE_OBSERVER)
NS_ADDREF(callback.o);
ReleaseCallback();
switch (callbackType) {
case CALLBACK_TYPE_FUNC:
callback.c(this, mClosure);
break;
case CALLBACK_TYPE_INTERFACE:
callback.i->Notify(this);
break;
case CALLBACK_TYPE_OBSERVER:
callback.o->Observe(static_cast<nsITimer*>(this),
NS_TIMER_CALLBACK_TOPIC,
nsnull);
break;
default:;
}
// If the callback didn't re-init the timer, and it's not a one-shot timer,
// restore the callback state.
if (mCallbackType == CALLBACK_TYPE_UNKNOWN &&
mType != TYPE_ONE_SHOT && !mCanceled) {
mCallback = callback;
mCallbackType = callbackType;
} else {
// The timer was a one-shot, or the callback was reinitialized.
if (callbackType == CALLBACK_TYPE_INTERFACE)
NS_RELEASE(callback.i);
else if (callbackType == CALLBACK_TYPE_OBSERVER)
NS_RELEASE(callback.o);
}
mFiring = PR_FALSE;
mTimerCallbackWhileFiring = nsnull;
#ifdef DEBUG_TIMERS
if (PR_LOG_TEST(gTimerLog, PR_LOG_DEBUG)) {
PR_LOG(gTimerLog, PR_LOG_DEBUG,
("[this=%p] Took %dms to fire timer callback\n",
this, PR_IntervalToMilliseconds(PR_IntervalNow() - now)));
}
#endif
if (mType == TYPE_REPEATING_SLACK) {
SetDelayInternal(mDelay); // force mTimeout to be recomputed.
if (gThread)
gThread->AddTimer(this);
}
}
void
mozTXTToHTMLConv::ScanHTML(nsString& aInString, PRUint32 whattodo, nsString &aOutString)
{
// some common variables we were recalculating
// every time inside the for loop...
PRInt32 lengthOfInString = aInString.Length();
const PRUnichar * uniBuffer = aInString.get();
#ifdef DEBUG_BenB_Perf
PRTime parsing_start = PR_IntervalNow();
#endif
// Look for simple entities not included in a tags and scan them.
/* Skip all tags ("<[...]>") and content in an a tag ("<a[...]</a>")
or in a tag ("<!--[...]-->").
Unescape the rest (text between tags) and pass it to ScanTXT. */
for (PRInt32 i = 0; i < lengthOfInString;)
{
if (aInString[i] == '<') // html tag
{
PRUint32 start = PRUint32(i);
if (nsCRT::ToLower((char)aInString[PRUint32(i) + 1]) == 'a')
// if a tag, skip until </a>
{
i = aInString.Find("</a>", true, i);
if (i == kNotFound)
i = lengthOfInString;
else
i += 4;
}
else if (aInString[PRUint32(i) + 1] == '!' && aInString[PRUint32(i) + 2] == '-' &&
aInString[PRUint32(i) + 3] == '-')
//if out-commended code, skip until -->
{
i = aInString.Find("-->", false, i);
if (i == kNotFound)
i = lengthOfInString;
else
i += 3;
}
else // just skip tag (attributes etc.)
{
i = aInString.FindChar('>', i);
if (i == kNotFound)
i = lengthOfInString;
else
i++;
}
aOutString.Append(&uniBuffer[start], PRUint32(i) - start);
}
else
{
PRUint32 start = PRUint32(i);
i = aInString.FindChar('<', i);
if (i == kNotFound)
i = lengthOfInString;
nsString tempString;
tempString.SetCapacity(PRUint32((PRUint32(i) - start) * growthRate));
UnescapeStr(uniBuffer, start, PRUint32(i) - start, tempString);
ScanTXT(tempString.get(), tempString.Length(), whattodo, aOutString);
}
}
#ifdef DEBUG_BenB_Perf
printf("ScanHTML time: %d ms\n", PR_IntervalToMilliseconds(PR_IntervalNow() - parsing_start));
#endif
}
PRInt32 _PR_MD_PR_POLL(PRPollDesc *pds, PRIntn npds, PRIntervalTime timeout)
{
#ifdef BSD_SELECT
fd_set rd, wt, ex;
#else
int rd, wt, ex;
int* socks;
unsigned long msecs;
int i, j;
#endif
PRFileDesc *bottom;
PRPollDesc *pd, *epd;
PRInt32 maxfd = -1, ready, err;
PRIntervalTime remaining, elapsed, start;
#ifdef BSD_SELECT
struct timeval tv, *tvp = NULL;
FD_ZERO(&rd);
FD_ZERO(&wt);
FD_ZERO(&ex);
#else
rd = 0;
wt = 0;
ex = 0;
socks = (int) PR_MALLOC( npds * 3 * sizeof(int) );
if (!socks)
{
PR_SetError(PR_OUT_OF_MEMORY_ERROR, 0);
return -1;
}
#endif
ready = 0;
for (pd = pds, epd = pd + npds; pd < epd; pd++)
{
PRInt16 in_flags_read = 0, in_flags_write = 0;
PRInt16 out_flags_read = 0, out_flags_write = 0;
if ((NULL != pd->fd) && (0 != pd->in_flags))
{
if (pd->in_flags & PR_POLL_READ)
{
in_flags_read = (pd->fd->methods->poll)(
pd->fd, pd->in_flags & ~PR_POLL_WRITE, &out_flags_read);
}
if (pd->in_flags & PR_POLL_WRITE)
{
in_flags_write = (pd->fd->methods->poll)(
pd->fd, pd->in_flags & ~PR_POLL_READ, &out_flags_write);
}
if ((0 != (in_flags_read & out_flags_read)) ||
(0 != (in_flags_write & out_flags_write)))
{
/* this one's ready right now */
if (0 == ready)
{
/*
* We will have to return without calling the
* system poll/select function. So zero the
* out_flags fields of all the poll descriptors
* before this one.
*/
PRPollDesc *prev;
for (prev = pds; prev < pd; prev++)
{
prev->out_flags = 0;
}
}
ready += 1;
pd->out_flags = out_flags_read | out_flags_write;
}
else
{
pd->out_flags = 0; /* pre-condition */
/* make sure this is an NSPR supported stack */
bottom = PR_GetIdentitiesLayer(pd->fd, PR_NSPR_IO_LAYER);
PR_ASSERT(NULL != bottom); /* what to do about that? */
if ((NULL != bottom) &&
(_PR_FILEDESC_OPEN == bottom->secret->state))
{
if (0 == ready)
{
PRInt32 osfd = bottom->secret->md.osfd;
if (osfd > maxfd)
maxfd = osfd;
if (in_flags_read & PR_POLL_READ)
{
pd->out_flags |= _PR_POLL_READ_SYS_READ;
#ifdef BSD_SELECT
FD_SET(osfd, &rd);
#else
socks[rd] = osfd;
rd++;
#endif
}
if (in_flags_read & PR_POLL_WRITE)
{
pd->out_flags |= _PR_POLL_READ_SYS_WRITE;
#ifdef BSD_SELECT
FD_SET(osfd, &wt);
#else
socks[npds+wt] = osfd;
wt++;
#endif
}
if (in_flags_write & PR_POLL_READ)
{
pd->out_flags |= _PR_POLL_WRITE_SYS_READ;
#ifdef BSD_SELECT
FD_SET(osfd, &rd);
#else
socks[rd] = osfd;
rd++;
#endif
}
if (in_flags_write & PR_POLL_WRITE)
{
pd->out_flags |= _PR_POLL_WRITE_SYS_WRITE;
#ifdef BSD_SELECT
FD_SET(osfd, &wt);
#else
socks[npds+wt] = osfd;
wt++;
#endif
}
if (pd->in_flags & PR_POLL_EXCEPT)
{
#ifdef BSD_SELECT
FD_SET(osfd, &ex);
#else
socks[npds*2+ex] = osfd;
ex++;
#endif
}
}
}
else
{
if (0 == ready)
{
PRPollDesc *prev;
for (prev = pds; prev < pd; prev++)
{
prev->out_flags = 0;
}
}
ready += 1; /* this will cause an abrupt return */
pd->out_flags = PR_POLL_NVAL; /* bogii */
}
}
}
else
{
pd->out_flags = 0;
}
}
if (0 != ready)
{
#ifndef BSD_SELECT
PR_Free(socks);
#endif
return ready; /* no need to block */
}
remaining = timeout;
start = PR_IntervalNow();
retry:
#ifdef BSD_SELECT
if (timeout != PR_INTERVAL_NO_TIMEOUT)
{
PRInt32 ticksPerSecond = PR_TicksPerSecond();
tv.tv_sec = remaining / ticksPerSecond;
tv.tv_usec = PR_IntervalToMicroseconds( remaining % ticksPerSecond );
tvp = &tv;
}
ready = bsdselect(maxfd + 1, &rd, &wt, &ex, tvp);
#else
switch (timeout)
{
case PR_INTERVAL_NO_WAIT:
msecs = 0;
break;
case PR_INTERVAL_NO_TIMEOUT:
msecs = -1;
break;
default:
msecs = PR_IntervalToMilliseconds(remaining);
}
/* compact array */
for( i = rd, j = npds; j < npds+wt; i++,j++ )
socks[i] = socks[j];
for( i = rd+wt, j = npds*2; j < npds*2+ex; i++,j++ )
socks[i] = socks[j];
ready = os2_select(socks, rd, wt, ex, msecs);
#endif
if (ready == -1 && errno == EINTR)
{
if (timeout == PR_INTERVAL_NO_TIMEOUT)
goto retry;
else
{
elapsed = (PRIntervalTime) (PR_IntervalNow() - start);
if (elapsed > timeout)
ready = 0; /* timed out */
else
{
remaining = timeout - elapsed;
goto retry;
}
}
}
/*
** Now to unravel the select sets back into the client's poll
** descriptor list. Is this possibly an area for pissing away
** a few cycles or what?
*/
if (ready > 0)
{
ready = 0;
for (pd = pds, epd = pd + npds; pd < epd; pd++)
{
PRInt16 out_flags = 0;
if ((NULL != pd->fd) && (0 != pd->in_flags))
{
PRInt32 osfd;
bottom = PR_GetIdentitiesLayer(pd->fd, PR_NSPR_IO_LAYER);
PR_ASSERT(NULL != bottom);
osfd = bottom->secret->md.osfd;
#ifdef BSD_SELECT
if (FD_ISSET(osfd, &rd))
#else
if( IsSocketSet(osfd, socks, 0, rd) )
#endif
{
if (pd->out_flags & _PR_POLL_READ_SYS_READ)
out_flags |= PR_POLL_READ;
if (pd->out_flags & _PR_POLL_WRITE_SYS_READ)
out_flags |= PR_POLL_WRITE;
}
#ifdef BSD_SELECT
if (FD_ISSET(osfd, &wt))
#else
if( IsSocketSet(osfd, socks, rd, wt) )
#endif
{
if (pd->out_flags & _PR_POLL_READ_SYS_WRITE)
out_flags |= PR_POLL_READ;
if (pd->out_flags & _PR_POLL_WRITE_SYS_WRITE)
out_flags |= PR_POLL_WRITE;
}
#ifdef BSD_SELECT
if (FD_ISSET(osfd, &ex))
#else
if( IsSocketSet(osfd, socks, rd+wt, ex) )
#endif
{
out_flags |= PR_POLL_EXCEPT;
}
}
pd->out_flags = out_flags;
if (out_flags) ready++;
}
PR_ASSERT(ready > 0);
}
else if (ready < 0)
{
err = _MD_ERRNO();
if (err == EBADF)
{
/* Find the bad fds */
int optval;
int optlen = sizeof(optval);
ready = 0;
for (pd = pds, epd = pd + npds; pd < epd; pd++)
{
pd->out_flags = 0;
if ((NULL != pd->fd) && (0 != pd->in_flags))
{
bottom = PR_GetIdentitiesLayer(pd->fd, PR_NSPR_IO_LAYER);
if (getsockopt(bottom->secret->md.osfd, SOL_SOCKET,
SO_TYPE, (char *) &optval, &optlen) == -1)
{
PR_ASSERT(sock_errno() == ENOTSOCK);
if (sock_errno() == ENOTSOCK)
{
pd->out_flags = PR_POLL_NVAL;
ready++;
}
}
}
}
PR_ASSERT(ready > 0);
}
else
_PR_MD_MAP_SELECT_ERROR(err);
}
#ifndef BSD_SELECT
PR_Free(socks);
#endif
return ready;
}