void
SampleProcessor::populate_calibration( SignalObserver::Observer * parent )
{
SignalObserver::Observers_var vec = parent->getSiblings();
if ( ( vec.ptr() != 0 ) && ( vec->length() > 0 ) ) {
for ( CORBA::ULong i = 0; i < vec->length(); ++i ) {
SignalObserver::Observer_ptr observer = vec[ i ];
unsigned long objId = observer->objId();
CORBA::WString_var dataClass;
SignalObserver::octet_array_var data;
CORBA::ULong idx = 0;
while ( observer->readCalibration( idx++, data, dataClass ) ) {
adfs::stmt sql( fs_->db() );
sql.prepare( "INSERT INTO Calibration VALUES(:objid,:dataClass,:data,0)" );
sql.bind( 1 ) = objId;
sql.bind( 2 ) = std::wstring( dataClass.in() );
sql.bind( 3 ) = adfs::blob( data->length(), reinterpret_cast< const int8_t *>( data->get_buffer() ) );
if ( sql.step() == adfs::sqlite_done )
sql.commit();
else
sql.reset();
}
}
for ( CORBA::ULong i = 0; i < vec->length(); ++i )
populate_calibration( vec[ i ] );
}
}
void
SampleProcessor::populate_descriptions( signalobserver::Observer * parent )
{
#if 0
SignalObserver::Observers_var vec = parent->getSiblings();
unsigned long pobjId = parent->objId();
if ( ( vec.ptr() != 0 ) && ( vec->length() > 0 ) ) {
for ( CORBA::ULong i = 0; i < vec->length(); ++i ) {
SignalObserver::Observer_ptr observer = vec[ i ];
unsigned long objId = observer->objId();
CORBA::WString_var clsid = observer->dataInterpreterClsid();
SignalObserver::Description_var desc = observer->getDescription();
CORBA::WString_var trace_id = desc->trace_id.in();
CORBA::WString_var trace_display_name = desc->trace_display_name.in();
CORBA::WString_var axis_x_label = desc->axis_x_label.in();
CORBA::WString_var axis_y_label = desc->axis_y_label.in();
adutils::AcquiredConf::insert( fs_->db()
, objId
, pobjId
, std::wstring( clsid.in() )
, uint64_t( desc->trace_method )
, uint64_t( desc->spectrometer )
, std::wstring( trace_id.in() )
, std::wstring( trace_display_name.in() )
, std::wstring( axis_x_label.in() )
, std::wstring( axis_y_label.in() )
, uint64_t( desc->axis_x_decimals )
, uint64_t( desc->axis_y_decimals ) );
}
for ( CORBA::ULong i = 0; i < vec->length(); ++i )
populate_descriptions( vec[ i ] );
}
#endif
}
bool
orb_i::readCalibrations( observer_type& obs )
{
CORBA::String_var dataClass;
SignalObserver::Observer_ptr tgt = std::get<0>( obs ).in();
auto spectrometer = std::get<4>( obs );
SignalObserver::octet_array_var data;
bool success = false;
CORBA::ULong idx = 0;
while ( tgt->readCalibration( idx++, data, dataClass ) ) {
auto wdataClass = adportable::utf::to_wstring( dataClass.in() );
if ( std::wcscmp( wdataClass.c_str(), adcontrols::MSCalibrateResult::dataClass() ) == 0 ) {
adcontrols::MSCalibrateResult result;
if ( adportable::binary::deserialize<>()(result, reinterpret_cast<const char *>(data->get_buffer()), data->length()) )
success = true;
if ( spectrometer )
spectrometer->setCalibration( idx - 1, result );
}
}
return success;
}
void
orb_i::handle_update_data( unsigned long objId, long pos )
{
ACE_UNUSED_ARG( pos );
try {
std::lock_guard< std::mutex > lock( task_->mutex_ );
if ( observerMap_.find( objId ) == observerMap_.end() ) {
SignalObserver::Observer_var tgt = observer_->findObserver( objId, true );
if ( CORBA::is_nil( tgt.in() ) )
return;
CORBA::String_var name = tgt->dataInterpreterClsid();
if ( auto spectrometer = adcontrols::MassSpectrometerBroker::make_massspectrometer( name.in() )) {
SignalObserver::Description_var desc = tgt->getDescription();
observerMap_[ objId ] = std::make_tuple( tgt, desc, adportable::utf::to_wstring( name.in() ), false, spectrometer );
npos_map_[ objId ] = pos;
} else {
ADTRACE() << "receive data from unavilable spectrometer: " << name.in();
return;
}
}
} catch ( ... ) {
ADDEBUG() << boost::current_exception_diagnostic_information();
}
try {
long& npos = npos_map_[ objId ];
if ( pos < npos )
return;
auto it = observerMap_.find( objId );
SignalObserver::Observer_ptr tgt = std::get<0>( it->second ).in();
SignalObserver::Description_var& desc = std::get<1>( it->second );
auto spectrometer = std::get<4>( it->second );
CORBA::String_var name = tgt->dataInterpreterClsid();
auto interpreter = adcontrols::DataInterpreterBroker::make_datainterpreter( name.in() );
if ( !interpreter )
return;
const adcontrols::DataInterpreter& dataInterpreter = *interpreter; //spectrometer->getDataInterpreter();
if ( desc->trace_method == SignalObserver::eTRACE_SPECTRA ) {
// ADDEBUG() << "handle_updae_data( " << objId << ", " << pos << ") npos=" << npos;
if ( !std::get<3>( it->second ) )
std::get<3>( it->second ) = readCalibrations( it->second );
try {
SignalObserver::DataReadBuffer_var rb;
while ( tgt->readData( npos, rb ) && npos <= pos ) {
ADDEBUG() << "\treadData( " << npos << " ) " << rb->pos;
++npos;
impl_->readMassSpectra( rb, *spectrometer, dataInterpreter, objId );
}
emit onUpdateUIData( objId, pos );
} catch ( CORBA::Exception& ex ) {
ADTRACE() << "handle_update_data got an corba exception: " << ex._info().c_str();
} catch ( ... ) {
ADTRACE() << boost::current_exception_diagnostic_information();
}
} else if ( desc->trace_method == SignalObserver::eTRACE_TRACE ) {
try {
SignalObserver::DataReadBuffer_var rb;
while ( tgt->readData( npos, rb ) ) {
npos = rb->pos + rb->ndata;
impl_->readTrace( desc, rb, dataInterpreter, objId );
emit onUpdateUIData( objId, pos );
return;
}
} catch ( CORBA::Exception& ex ) {
ADTRACE() << "handle_update_data got an corba exception: " << ex._info().c_str();
}
}
} catch ( ... ) {
ADDEBUG() << boost::current_exception_diagnostic_information();
}
}