void CTe_locsrvSuiteStepBase::PositionRequestWithCheck(TPositionInfo& _aInfo, TRequestStatus& aStatus, TInt _aResult, TUid _aModuleId, RPositioner aPositioner)
{
aPositioner.NotifyPositionUpdate(_aInfo, aStatus);
User::WaitForRequest(aStatus);
CheckExpectedResult(aStatus.Int(), _aResult, KWrongRequestResult);
CheckExpectedResult((_aInfo).ModuleId(), _aModuleId, KWrongModuleIdReturned);
}
void RelativeDateTimeFormatterTest::RunTest(
const RelativeDateTimeFormatter& fmt,
const WithoutQuantityExpected* expectedResults,
int32_t expectedResultLength,
const char *description) {
for (int32_t i = 0; i < expectedResultLength; ++i) {
CheckExpectedResult(fmt, expectedResults[i], description);
}
}
void CompactDecimalFormatTest::CheckLocale(const Locale& locale, UNumberCompactStyle style, const ExpectedResult* expectedResults, int32_t expectedResultLength) {
UErrorCode status = U_ZERO_ERROR;
LocalPointer<CompactDecimalFormat> cdf(createCDFInstance(locale, style, status));
if (U_FAILURE(status)) {
dataerrln("Unable to create format object - %s", u_errorName(status));
return;
}
char description[256];
sprintf(description,"%s - %s", locale.getName(), StyleStr(style));
for (int32_t i = 0; i < expectedResultLength; i++) {
CheckExpectedResult(cdf.getAlias(), &expectedResults[i], description);
}
}
TVerdict CGetFixTestStep::doTestStepL()
/**
* @return - TVerdict code
* Override of base class pure virtual
* Our implementation only gets called if the base class doTestStepPreambleL() did
* not leave. That being the case, the current test result value will be EPass.
*/
{
StandardPrepareL();
RPositionServer server;
if(KErrNone != server.Connect())
{
ERR_PRINTF1(KFailedConnectServer);
SetTestStepResult(EFail);
return TestStepResult();
}
CleanupClosePushL(server);
RPositioner positioner;
if(KErrNone != positioner.Open(server))
{
ERR_PRINTF1(KFailedOpenPositioner);
SetTestStepResult(EFail);
return TestStepResult();
}
CleanupClosePushL(positioner);
CheckExpectedResult(KErrNone, SetAuthenticRequestor(positioner));
TPositionInfo posInfo;
TRequestStatus reqStatus;
//
// 1. No modules, no last known fix
DisableAllModulesL();
// ask for a fix
positioner.NotifyPositionUpdate(posInfo, reqStatus);
User::WaitForRequest(reqStatus);
CheckExpectedResult(reqStatus.Int(), KErrNotFound, KWrongResult);
// ask for last known pos
TRequestStatus dbclear;
server.EmptyLastKnownPositionStore(dbclear);
User::WaitForRequest(dbclear);
positioner.GetLastKnownPosition(posInfo, reqStatus);
User::WaitForRequest(reqStatus);
if (reqStatus.Int() != KErrUnknown)
{
ERR_PRINTF2(_L("GetLastKnownPosition returned %d"),reqStatus.Int());
SetTestStepResult(EFail);
}
//
// 2. Some modules, last known fix exists
// first, create LastKnownPos
const TUid KPsy1Uid = {KLcfPsy1UidValue};
TogglePsyL(KPsy1Uid, ETrue);
positioner.NotifyPositionUpdate(posInfo, reqStatus);
User::WaitForRequest(reqStatus);
CheckExpectedResult(reqStatus.Int(), KErrNone, KWrongResult);
// now last known pos exists, ask for it
positioner.GetLastKnownPosition(posInfo, reqStatus);
User::WaitForRequest(reqStatus);
CheckExpectedResult(reqStatus.Int(), KErrNone, KWrongResult);
//
// 3. No modules, last known fix exists
TogglePsyL(KPsy1Uid, EFalse);
// ask for a fix
positioner.NotifyPositionUpdate(posInfo, reqStatus);
User::WaitForRequest(reqStatus);
CheckExpectedResult(reqStatus.Int(), KErrNotFound, KWrongResult);
// now last known pos exists, ask for it
positioner.GetLastKnownPosition(posInfo, reqStatus);
User::WaitForRequest(reqStatus);
CheckExpectedResult(reqStatus.Int(), KErrNone, KWrongResult);
CleanupStack::PopAndDestroy(2, &server);
return TestStepResult();
}
TVerdict CTwoPsysStep::doTestStepL()
/**
* @return - TVerdict code
* Override of base class pure virtual
* Our implementation only gets called if the base class doTestStepPreambleL() did
* not leave. That being the case, the current test result value will be EPass.
*/
{
StandardPrepareL();
InitPsySettingsL(2, KIntGpsPsy1, 1, KNetworkPsy1, 1);
ConfigPsyL(KIntGpsPsy1, 7,
KConfigLRNoError, //Step 1. no error
KConfigLRErrGeneral1s, //Step 2. KErrGeneral
KConfigLRNoError35s, //Step 3. no error in 35s
KConfigLRErrGeneral1s, //Step 4. KErrGeneral in 1 seconds
KConfigLRNoError35s, //Step 5. no error in 35s
KConfigLRNoError35s, //Step 6. no error in 35s
KConfigLRErrGeneral35s //Step 7. KErrGeneral in 35s.
);
ConfigPsyL(KNetworkPsy1, 6,
KConfigLRNoError, //Step2. no error
KConfigLRNoError, //Step3. no error
KConfigLRErrNoMemory, //Step4. KErrNoMemory in 1 seconds
KConfigLRNoError35s, //Step5. no error in 35 seconds
KConfigLRErrNoMemory, //Step6. KErrNoMemory in 1 seconds
KConfigLRNoError10s //Step7. no error in 35s
);
User::After(KSecond*7); //Delay is needed after every time PSY is configured.
TRequestStatus status;
TPositionInfo posInfo;
TPositionUpdateOptions options;
//1. When PSY1 is able to give a fix. Make location request,
//it shall be completed from IntGpsPsy1
SET_TIME
PositionRequestWithCheck(posInfo, KErrNone, KIntGpsPsy1);
CHECK_TIME(1)
//2. When PSY1 returns a error code, PSY2 shall return KErrNone
PositionRequestWithCheck(posInfo, KErrNone, KNetworkPsy1);
CHECK_TIME(2)
//Reset the priority of default proxy. Delay shall be used every time
//PSY1 gives a error code
User::After(KSecond*7);
//3. When PSY1 does not response anything within timeshift, PSY2 shall
//return KErrNone
SET_TIME
PositionRequestWithCheck(posInfo, KErrNone, KNetworkPsy1);
CHECK_TIME(31) //30 is the timeshift value min(TTFF(80), 30)
User::After(KSecond*7);
//4. When both PSY returns error code, the error code from the
//first PSY be returned
//If the completion code is not KErrNone or KPositionPartialUpdate,
//Location Server will not return module ID.
SET_TIME
iPositioner.NotifyPositionUpdate(posInfo,status);
User::WaitForRequest(status);
CheckExpectedResult(status.Int(), KErrGeneral, KWrongRequestResult);
CHECK_TIME(2)
//Reset the priority of default proxy. Delay shall be used every time
//PSY1 gives error code
User::After(KSecond*7);
//5. PSY1 does not give a fix within timeshift, PSY2 is tried. Before PSY2
//returns a fix, PSY gives a fix, then fix from PSY1 shall be used.
SET_TIME
PositionRequestWithCheck(posInfo, KErrNone, KIntGpsPsy1);
CHECK_TIME(35)
//6. PSY1 does not give a fix within timeshift, PSY2 is tried. But PSY2 failed
//to give a fix, default proxy will wait until PSY1 give a fix
PositionRequestWithCheck(posInfo, KErrNone, KIntGpsPsy1);
CHECK_TIME(35)
//7. PSY1 does not give a fix within timeshift, PSY2 is tried. If PSY1 then
//give a error code, then fix from PSY2 will be used.
PositionRequestWithCheck(posInfo, KErrNone, KNetworkPsy1);
CHECK_TIME(40)
StandardCleanup();
return TestStepResult();
}
TVerdict CTrackingSessionStep::doTestStepL()
/**
* @return - TVerdict code
* Override of base class pure virtual
* Our implementation only gets called if the base class doTestStepPreambleL() did
* not leave. That being the case, the current test result value will be EPass.
*/
{
StandardPrepareL();
const TInt KInterval = 1 * KSecondsToMicro;
const TTimeIntervalMicroSeconds KFirstRequestDelay = 200 * 1000; // 0.2 sec
const TTimeIntervalMicroSeconds KNormalRequestDelay = 200 * 1000; // 0.2 sec
const TInt KDiff = 200 * 1000; // 0.2 sec
const TInt KIntervalError = 100 * 1000; // 0.1 sec
TRequestStatus status;
TWatch watch;
TTime secondRequest, stopTracking;
TInt interval;
HPositionGenericInfo* genInfo = HPositionGenericInfo::NewLC();
// setup : only PSY6
ToggleModuleL(KUidLcfPsy1, EFalse);
ToggleModuleL(KUidLcfPsy3, EFalse);
User::After(KSecond * 7);
InitPsyListInDefaultProxyL();
// make one request to allow default proxy rebuild its database
// this will guarantee that first request will be as fast as possible
TPositionCourseInfo courseInfo;
PositionRequestWithCheck(courseInfo, KErrArgument, KNullUid);
// setup tracking session
TPositionUpdateOptions updateOptions;
updateOptions.SetUpdateInterval(KInterval);
iPositioner.SetUpdateOptions(updateOptions);
// 1st request
// first request must be quick
watch.Tick();
PositionRequestWithCheck(*genInfo, KErrNone, KUidLcfPsy6);
if(watch.ElapsedFromTick() > KFirstRequestDelay)
{
ERR_PRINTF1(KFirstDelayTooLong);
SetTestStepResult(EFail);
}
// drop delay and make 2nd and 3rd requests
genInfo->ClearRequestedFields();
{
watch.Tick();
PositionRequestWithCheck(*genInfo, KErrNone, KUidLcfPsy6);
secondRequest.UniversalTime();
interval = (TInt) watch.ElapsedFromTick().Int64();
if(Abs(interval - KInterval) > KIntervalError)
{
ERR_PRINTF1(KSecondDelayOutOfRange);
SetTestStepResult(EFail);
}
watch.Tick();
PositionRequestWithCheck(*genInfo, KErrNone, KUidLcfPsy6);
interval = watch.ElapsedFromTick().Int64();
if(Abs(interval - KInterval) > KIntervalError)
{
ERR_PRINTF1(KThirdDelayOutOfRange);
SetTestStepResult(EFail);
}
}
// stop tracking
updateOptions.SetUpdateInterval(TTimeIntervalMicroSeconds(0));
iPositioner.SetUpdateOptions(updateOptions);
stopTracking.UniversalTime();
// psy6 must return event log
genInfo->SetRequestedField(KPSY6FieldEventLog);
watch.Tick();
PositionRequestWithCheck(*genInfo, KErrNone, KUidLcfPsy6);
if(watch.ElapsedFromTick() > KNormalRequestDelay)
{
ERR_PRINTF1(KNormalDelayTooBig);
SetTestStepResult(EFail);
}
// Analyze event log from PSY6
TQueryEvent* eventArray = GetPsy6EventLogL(*genInfo);
TInt32 logSize;
if(KErrNone != genInfo->GetValue(KPSY6FieldEventLogSize, logSize))
{
ERR_PRINTF1(KFailedReadLogsize);
SetTestStepResult(EFail);
return TestStepResult();
}
TUint expectedEvents[] = {EUpdate,
ETrackingStart,
EUpdate,
EUpdate,
ETrackingStop,
EUpdate};
TUint numExpectedEvents = sizeof(expectedEvents) / sizeof(TUint);
CheckExpectedResult(logSize, numExpectedEvents, KWrongEventNumberPSY6);
// check event types
for (TInt32 index = 0; index < Min(logSize, numExpectedEvents); index++)
{
TQueryEvent& event = *(eventArray + index);
CheckExpectedResult(event.iEventType, expectedEvents[index], KUnexpectedEvent);
}
// check event times
if(logSize != numExpectedEvents)
{
ERR_PRINTF1(KCannotCheckEventTimes);
SetTestStepResult(EFail);
return TestStepResult();
}
// ( ETrackingStart should have happenned right after first
// request was completed )
// Harley: Because of intelligent Default Proxy change, the tracking start
// shall happen just before the second location request is issued to the PSY.
TQueryEvent& event = *(eventArray + 1);
if(Abs(secondRequest.MicroSecondsFrom(event.iTime).Int64()) > KDiff)
{
ERR_PRINTF1(KStartEventBeyondExpectendRange);
SetTestStepResult(EFail);
}
// ETrackingStop should have happenned right after second
// SetUpdateOptions
event = *(eventArray + 4);
if(Abs(stopTracking.MicroSecondsFrom(event.iTime).Int64()) > KDiff)
{
ERR_PRINTF1(KStopEventBeyondExpectendRange);
SetTestStepResult(EFail);
}
// cleanup
CleanupStack::PopAndDestroy(genInfo);
StandardCleanup();
return TestStepResult();
}
TVerdict CPsyDisabledStep::doTestStepL()
/**
* @return - TVerdict code
* Override of base class pure virtual
* Our implementation only gets called if the base class doTestStepPreambleL() did
* not leave. That being the case, the current test result value will be EPass.
*/
{
StandardPrepareL();
InitPsySettingsL(3, KNetworkPsy1, 1, KIntGpsPsy1, 1, KNetworkPsy2, 1);
ConfigPsyL(KNetworkPsy1, 1,
KConfigLRNoError10s //Step1. no error in 10s
);
ConfigPsyL(KIntGpsPsy1, 2,
KConfigLRNoError, //Step 1. no error
KConfigLRNoError10s //Step 2. no error in 10s
);
ConfigPsyL(KNetworkPsy2, 1,
KConfigLRNoError //Step2. no error
);
User::After(KSecond*7);
TRequestStatus status;
TPositionInfo posInfo;
TPositionUpdateOptions options;
//1. Disable PSY1 while location request is on going. LR shall
//fallback to PSY2 and then fix from PSY2 is used.
iPositioner.NotifyPositionUpdate(posInfo, status);
User::After(KTinyDelay);
SET_TIME
ToggleModuleL(KNetworkPsy1, EFalse);
User::WaitForRequest(status);
//CHECK_TIME(1)
CheckExpectedResult(status.Int(), KErrNone, KFailedPositionRequest);
CheckExpectedResult(posInfo.ModuleId(), KIntGpsPsy1, KWrongModuleIdReturned);
ToggleModuleL(KNetworkPsy1, ETrue);
//Config PSY1 again since it was unloaded when it was disabled.
ConfigPsyL(KNetworkPsy1, 1,
KConfigLRNoError20s //Step2. no error in 20s
);
User::After(KSecond*7);
//2. Disable PSY2 while location request ongoing, the request shall
//fallbck to PSY3
SET_TIME
iPositioner.NotifyPositionUpdate(posInfo, status);
User::After(KSecond*15); //after 15s disable PSY2
ToggleModuleL(KIntGpsPsy1, EFalse);
User::WaitForRequest(status);
CHECK_TIME(16) //After PSY2 is disabled in 15 seconds, PSY3 is used.
CheckExpectedResult(status.Int(), KErrNone, KFailedPositionRequest);
CheckExpectedResult(posInfo.ModuleId(), KNetworkPsy2, KWrongModuleIdReturned);
// cleanup
StandardCleanup();
return TestStepResult();
}
TVerdict CPsyVisibleStep::doTestStepL()
/**
* @return - TVerdict code
* Override of base class pure virtual
* Our implementation only gets called if the base class doTestStepPreambleL() did
* not leave. That being the case, the current test result value will be EPass.
*/
{
StandardPrepareL();
InitPsySettingsL(3, KNetworkPsy1, 1, KIntGpsPsy1, 1, KNetworkPsy2, 1);
ConfigPsyL(KIntGpsPsy1, 3,
KConfigLRNoError5s, //Step 1. no error in 5s
KConfigLRErrGeneral1s, //Step 2. error in 1s
KConfigLRErrGeneral1s //Step 3. error in 1s
);
User::After(KSecond*7);
TRequestStatus status;
TPositionInfo posInfo;
TPositionUpdateOptions options;
ToggleModuleVisibleL(KNetworkPsy1, EFalse);
//1. Set PSY1 visible shall not affect location request
SET_TIME
iPositioner.NotifyPositionUpdate(posInfo, status);
User::After(KTinyDelay);
ToggleModuleVisibleL(KNetworkPsy1, ETrue);
User::WaitForRequest(status);
CHECK_TIME(5)
CheckExpectedResult(status.Int(), KErrNone, KFailedPositionRequest);
CheckExpectedResult(posInfo.ModuleId(), KIntGpsPsy1, KWrongModuleIdReturned);
ToggleModuleVisibleL(KNetworkPsy2, EFalse);
ConfigPsyL(KNetworkPsy1, 2,
KConfigLRNoError35s, //Step2. no error in 35s
KConfigLRErrNoMemory //Step 3. error in 1s
);
User::After(KSecond*7);
//2. Set PSY3 visible during fallback shall has no effect
SET_TIME
iPositioner.NotifyPositionUpdate(posInfo, status);
User::After(KSecond*5);
ToggleModuleVisibleL(KNetworkPsy2, ETrue);
User::WaitForRequest(status);
CHECK_TIME(35) //PSY1 response time
CheckExpectedResult(status.Int(), KErrNone, KFailedPositionRequest);
CheckExpectedResult(posInfo.ModuleId(), KNetworkPsy1, KWrongModuleIdReturned);
//3. PSY3 shall be used in next LR
SET_TIME
iPositioner.NotifyPositionUpdate(posInfo, status);
User::WaitForRequest(status);
CheckExpectedResult(status.Int(), KErrNone, KFailedPositionRequest);
CheckExpectedResult(posInfo.ModuleId(), KNetworkPsy2, KWrongModuleIdReturned);
// cleanup
StandardCleanup();
return TestStepResult();
}
TVerdict CMultipleClientsStep::doTestStepL()
/**
* @return - TVerdict code
* Override of base class pure virtual
* Our implementation only gets called if the base class doTestStepPreambleL() did
* not leave. That being the case, the current test result value will be EPass.
*/
{
StandardPrepareL();
InitPsySettingsL(3,
KExtGpsPsy1, 1,
KIntGpsPsy1, 1,
KNetworkPsy2, 1);
TRequestStatus status;
TPositionInfo posInfo;
TPositionUpdateOptions options;
TRequestStatus status2;
TPositionInfo posInfo2;
TPositionUpdateOptions options2;
RPositioner positioner2;
User::LeaveIfError(positioner2.Open(iServer));
CleanupClosePushL(positioner2);
User::LeaveIfError(positioner2.SetRequestor(
CRequestor::ERequestorService,
CRequestor::EFormatApplication,
KTdDefProxyTestName));
//1. Make location request from both PSYs. All should succeed from ExtGpsPsy1
positioner2.NotifyPositionUpdate(posInfo2,status2);
PositionRequestWithCheck(posInfo, KErrNone, KExtGpsPsy1);
User::WaitForRequest(status2);
CheckExpectedResult(status2.Int(), KErrNone, KWrongRequestResult);
CheckExpectedResult(posInfo2.ModuleId(), KExtGpsPsy1, KWrongModuleIdReturned); \
//2. When all PSYs returns error code, both PSYs shall
//get error code from the first PSY
ConfigPsyL(KExtGpsPsy1, 1,
KConfigLRErrNoMemory //KErrNoMemory 1s
);
ConfigPsyL(KIntGpsPsy1, 1,
KConfigLRErrGeneral1s //KErrGeneral 1s
);
ConfigPsyL(KNetworkPsy2, 1,
KConfigLRErrNoMemory //KErrNoMemory 1s
);
ConfigPsyL(positioner2, KExtGpsPsy1, 1,
KConfigLRErrNoMemory //KErrNoMemory 1s
);
ConfigPsyL(positioner2, KIntGpsPsy1, 1,
KConfigLRErrGeneral1s //KErrGeneral 1s
);
ConfigPsyL(positioner2, KNetworkPsy2, 1,
KConfigLRErrNoMemory //KErrNoMemory 1s
);
InitPsyListInDefaultProxyL();
iPositioner.NotifyPositionUpdate(posInfo, status);
positioner2.NotifyPositionUpdate(posInfo2, status2);
User::WaitForRequest(status);
CheckExpectedResult(status.Int(), KErrNoMemory, KWrongRequestResult);
User::WaitForRequest(status2);
CheckExpectedResult(status2.Int(), KErrNoMemory, KWrongRequestResult);
//3. When PSY1 returns error code to to client 1. Location request
//from PSY2 shall fallback imediately
ConfigPsyL(KExtGpsPsy1, 1,
KConfigLRErrNoMemory //KErrNoMemory 1s
);
ConfigPsyL(KIntGpsPsy1, 1,
KConfigLRErrGeneral1s //KErrGeneral 1s
);
ConfigPsyL(KNetworkPsy2, 1,
KConfigLRNoError1s //No error 1s
);
ConfigPsyL(positioner2, KExtGpsPsy1, 1,
KConfigLRNoError10s //No error in 10s
);
ConfigPsyL(positioner2, KIntGpsPsy1, 1,
KConfigLRNoError10s //KErrGeneral 1s
);
ConfigPsyL(positioner2, KNetworkPsy2, 1,
KConfigLRNoError1s //KErrNoMemory 1s
);
InitPsyListInDefaultProxyL();
User::After(KSecond * 7); //Delay after configuration
SET_TIME
PositionRequestWithCheck(posInfo, KErrNone, KNetworkPsy2);
INFO_PRINTF1(_L("1 3"));
CHECK_TIME(3)
//LR from second PSY
positioner2.NotifyPositionUpdate(posInfo2, status2);
User::WaitForRequest(status2);
INFO_PRINTF1(_L("2 1"));
CHECK_TIME(1) //PSY1 and PSY2 fallback imediately, LR completed from PSY3 in 1s
CheckExpectedResult(status2.Int(), KErrNone, KWrongRequestResult);
CheckExpectedResult(posInfo2.ModuleId(), KNetworkPsy2, KWrongModuleIdReturned);
//4. PSY state change beause of LR for client1 shall affect LR for client2 as well
//
ConfigPsyL(KExtGpsPsy1, 1,
KConfigLRErrNoMemory //KErrNoMemory 1s
);
ConfigPsyL(positioner2, KExtGpsPsy1, 1,
KConfigLRNoError10s //No error in 10s
);
InitPsyListInDefaultProxyL();
User::After(KSecond * 7); //Delay after configuration
SET_TIME
positioner2.NotifyPositionUpdate(posInfo2, status2);
PositionRequestWithCheck(posInfo, KErrNone, KIntGpsPsy1);
INFO_PRINTF1(_L("3 1"));
CHECK_TIME(1);
User::WaitForRequest(status2);
CheckExpectedResult(status2.Int(), KErrNone, KWrongRequestResult);
CheckExpectedResult(posInfo2.ModuleId(), KIntGpsPsy1, KWrongModuleIdReturned);
INFO_PRINTF1(_L("4 0"));
CHECK_TIME(0);
//5. Dynamic list change caused by PSY1 shall not affect PSY list orders of client2
//if location request is already made.
ConfigPsyL(KExtGpsPsy1, 1,
KConfigLRErrNoMemory //KErrNoMemory 1s
);
ConfigPsyL(KIntGpsPsy1, 2,
KConfigLRNoError1s, //No error in 10s
KConfigLRErrNoMemory //KErrNoMemory 1s
);
ConfigPsyL(positioner2, KIntGpsPsy1, 2,
KConfigLRNoError1s, //No error in 10s
KConfigLRNoError20s //No error in 10s
);
ConfigPsyL(positioner2, KExtGpsPsy1, 1,
KConfigLRNoError45s //No error in 45s
);
InitPsyListInDefaultProxyL();
User::After(KSecond * 7); //Delay after configuration
PositionRequestWithCheck(posInfo, KErrNone, KIntGpsPsy1);
//Location request from client 2 shall be completed imediatelly, since
//IntGpsPsy shall be the first on the dynamic list
SET_TIME
positioner2.NotifyPositionUpdate(posInfo2, status2);
User::WaitForRequest(status2);
CheckExpectedResult(status2.Int(), KErrNone, KWrongRequestResult);
CheckExpectedResult(posInfo2.ModuleId(), KIntGpsPsy1, KWrongModuleIdReturned);
INFO_PRINTF1(_L("5 1"));
CHECK_TIME(1);
//Make location request from client 2
positioner2.NotifyPositionUpdate(posInfo2, status2);
SET_TIME
PositionRequestWithCheck(posInfo, KErrNone, KExtGpsPsy1);
INFO_PRINTF1(_L("6 1"));
CHECK_TIME(1)
User::WaitForRequest(status2);
CheckExpectedResult(status2.Int(), KErrNone, KWrongRequestResult);
CheckExpectedResult(posInfo2.ModuleId(), KNetworkPsy2, KWrongModuleIdReturned);
INFO_PRINTF1(_L("7 0"));
CHECK_TIME(0)
CleanupStack::PopAndDestroy(&positioner2);
//Cleanup
StandardCleanup();
return TestStepResult();
}
TInt CTe_locsrvSuiteStepBase::DoPanicTestL(TThreadFunction aThreadFunction, TExitCategoryName aExpectedExitCat,
TInt aExpectedExitReason, TTimeIntervalMicroSeconds32 aTimeoutValue)
{
#ifdef __WINS__
User::SetJustInTime(EFalse);
CleanupStack::PushL(TCleanupItem(TurnJITBackOn));
#endif
RThread panickingThread;
SPanicThreadFunctionData threadData;
threadData.iPanicFunction = aThreadFunction;
threadData.iPtr = NULL;
// check that thread does not already exist
TInt result = KErrNone;
TBuf<24> threadName(KPanicThreadName);
result = panickingThread.Create(
threadName,
PanicThreadFunction,
KDefaultStackSize,
KTestHeapMinSize,
KTestHeapMaxSize,
&threadData,
EOwnerProcess);
CheckExpectedResult(result, KErrNone, KUnexpectedErrorCreatingPanicThread);
User::LeaveIfError(result);
CleanupClosePushL(panickingThread);
RTimer timeoutTimer;
User::LeaveIfError(timeoutTimer.CreateLocal());
CleanupClosePushL(timeoutTimer);
TRequestStatus timerStatus;
timeoutTimer.After(timerStatus, aTimeoutValue);
TRequestStatus threadStatus;
panickingThread.Rendezvous(threadStatus);
if (threadStatus != KRequestPending)
{
// logon failed - thread is not yet running, so cannot have terminated
User::WaitForRequest(threadStatus); // eat signal
panickingThread.Kill(threadStatus.Int()); // abort startup
}
else
{
panickingThread.Resume();
User::WaitForRequest(threadStatus, timerStatus);
}
TInt exitReason = KErrNone;
if (threadStatus == KRequestPending)
{
ERR_PRINTF1(KThreadDidntDieKillIt);
panickingThread.Kill(KErrTimedOut);
User::WaitForRequest(threadStatus);
}
else // (timerStatus == KRequestPending)
{
// stop timer
timeoutTimer.Cancel();
User::WaitForRequest(timerStatus);
}
exitReason = panickingThread.ExitReason();
TExitCategoryName exitCat = panickingThread.ExitCategory();
switch(panickingThread.ExitType())
{
case EExitKill:
INFO_PRINTF2(KThreadWasKilled, exitReason);
break;
case EExitTerminate:
INFO_PRINTF2(KThreadWasTerminated, exitReason);
break;
case EExitPanic:
// check exit reasons
if (exitCat.Compare(aExpectedExitCat) != 0)
{
INFO_PRINTF3(KUnexpectedPanicCategory, &exitCat, &aExpectedExitCat);
}
CheckExpectedResult(exitReason, aExpectedExitReason, KUnexpectedPanicReason);
break;
default:
CheckExpectedResult((TInt)EExitPanic, threadStatus.Int(), KUnexpectedThreadExitType);
break;
}
CleanupStack::PopAndDestroy(&timeoutTimer);
CleanupStack::PopAndDestroy(&panickingThread);
#ifdef __WINS__
CleanupStack::PopAndDestroy(); //TurnJITBackOn
#endif
// wait a bit to make sure this thread is over
const TTimeIntervalMicroSeconds32 KThreadDelay = 1000 * 1000; // 1 s
User::After(KThreadDelay);
return exitReason;
}