/** Create the module information depending on module id(i'e either agps_manager or network location manager)
Fills a module info class/structure with values depending on the module id.
@param aModuleId module id within the ini file
@param aModInfo The modified module info structure.
*/
EXPORT_C void T_LbsUtils::Create_ModuleInfoL(TPositionModuleId aModuleId, TPositionModuleInfo& aModInfo)
{
TPositionQuality posQuality;
// Use these values if the module is a-gps manager
if (aModuleId == (TUid::Uid(APGS_MODINFO_MODULE_ID)))
{
aModInfo.SetModuleId(TUid::Uid(APGS_MODINFO_MODULE_ID));
aModInfo.SetIsAvailable(AGPS_MODINFO_IS_AVAILABLE);
aModInfo.SetModuleName(AGPS_MODINFO_MOD_NAME);
aModInfo.SetTechnologyType(AGPS_MODINFO_TECHNOLOGY_TYPE);
aModInfo.SetDeviceLocation(AGPS_MODINFO_DEVICE_LOCATION);
aModInfo.SetCapabilities(AGPS_MODINFO_CAPABILITIES);
// Classes Supported - this is a binary bitmap, but support for each class
// has to be set individually.
TInt supportedClasses = AGPS_MODINFO_CLASSES_SUPPORTED_POSITION_FAMILY;
TPositionClassFamily currentClass = EPositionInfoFamily;
while(currentClass <= EPositionUpdateOptionsFamily)
{
aModInfo.SetClassesSupported(currentClass, supportedClasses & 1);
supportedClasses >>= 1;
currentClass = static_cast<TPositionClassFamily>(static_cast<TInt>(currentClass) + 1);
}
aModInfo.SetVersion(AGPS_MODINFO_VERSION);
posQuality.SetTimeToFirstFix(AGPS_MODINFO_TIME_TO_FIRST_FIX);
posQuality.SetTimeToNextFix(AGPS_MODINFO_TIME_TO_NEXT_FIX);
posQuality.SetHorizontalAccuracy(AGPS_MODINFO_HORIZONTAL_ACCURACY);
posQuality.SetVerticalAccuracy(AGPS_MODINFO_VERTICAL_ACCURACY);
posQuality.SetCostIndicator(AGPS_MODINFO_COST_INDICATOR);
posQuality.SetPowerConsumption(AGPS_MODINFO_POWER_CONSUMPTION);
aModInfo.SetPositionQuality(posQuality);
}
void CTe_LbsIniFileReader::ReadPosQualityCriteria(TPositionQuality& aPosQuality)
{
TInt intValue;
TInt64 int64Value;
TReal32 real32Value;
// Get the Time To First Fix
FindVar(KTimeToFirstFixStr,int64Value);
__ASSERT_ALWAYS( int64Value <= KMaxTInt, User::Panic(KLbsNetPsyTestPanic, ELbsPanicBadFirstFixValue));
if(int64Value>=0)
{
int64Value *= KMilliSecToMicroSecConverter;
aPosQuality.SetTimeToFirstFix(int64Value);
}
else
{
aPosQuality.SetTimeToFirstFix(0);
}
// Get the Time To Next Fix
FindVar(KTimeToNextFixStr,int64Value);
__ASSERT_ALWAYS( int64Value <= KMaxTInt, User::Panic(KLbsNetPsyTestPanic, ELbsPanicBadNextFixValue));
if(int64Value>=0)
{
int64Value *= KMilliSecToMicroSecConverter;
aPosQuality.SetTimeToNextFix(int64Value);
}
else
{
aPosQuality.SetTimeToNextFix(0);
}
// Get the Horizontal Accuracy
FindVar(KHorizontalAccuracyStr,real32Value);
if(real32Value>=0)
{
aPosQuality.SetHorizontalAccuracy(real32Value);
}
else
{
aPosQuality.SetHorizontalAccuracy(0);
}
// Get the Vertical Accuracy
FindVar(KVerticalAccuracyStr,real32Value);
if(real32Value>=0)
{
aPosQuality.SetVerticalAccuracy(real32Value);
}
else
{
aPosQuality.SetVerticalAccuracy(0);
}
// Get the cost indicator
FindVar(KCostIndicatorStr,intValue);
TPositionQuality::TCostIndicator costIndicator;
switch(intValue)
{
case 1:
costIndicator = TPositionQuality::ECostZero;
break;
case 2:
costIndicator = TPositionQuality::ECostPossible;
break;
case 3:
costIndicator = TPositionQuality::ECostCharge;
break;
default:
costIndicator = TPositionQuality::ECostUnknown;
break;
}
aPosQuality.SetCostIndicator(costIndicator);
// Get the power consumption
FindVar(KPowerConsumptionStr,intValue);
TPositionQuality::TPowerConsumption powerConsumption;
switch(intValue)
{
case 1:
powerConsumption = TPositionQuality::EPowerZero;
break;
case 2:
powerConsumption = TPositionQuality::EPowerLow;
break;
case 3:
powerConsumption = TPositionQuality::EPowerMedium;
break;
case 4:
powerConsumption = TPositionQuality::EPowerHigh;
break;
default:
powerConsumption = TPositionQuality::EPowerUnknown;
break;
}
aPosQuality.SetPowerConsumption(powerConsumption);
}
