int main()
{
{
typedef std::unique_ptr<A> APtr;
APtr s(new A);
A* p = s.get();
APtr s2 = std::move(s);
assert(s2.get() == p);
assert(s.get() == 0);
assert(A::count == 1);
}
assert(A::count == 0);
{
typedef Deleter<A> MoveDel;
typedef std::unique_ptr<A, MoveDel> APtr;
MoveDel d(5);
APtr s(new A, std::move(d));
assert(d.state() == 0);
assert(s.get_deleter().state() == 5);
A* p = s.get();
APtr s2 = std::move(s);
assert(s2.get() == p);
assert(s.get() == 0);
assert(A::count == 1);
assert(s2.get_deleter().state() == 5);
assert(s.get_deleter().state() == 0);
}
assert(A::count == 0);
{
typedef NCDeleter<A> NonCopyDel;
typedef std::unique_ptr<A, NonCopyDel&> APtr;
NonCopyDel d;
APtr s(new A, d);
A* p = s.get();
APtr s2 = std::move(s);
assert(s2.get() == p);
assert(s.get() == 0);
assert(A::count == 1);
d.set_state(6);
assert(s2.get_deleter().state() == d.state());
assert(s.get_deleter().state() == d.state());
}
assert(A::count == 0);
{
sink1(source1());
assert(A::count == 0);
sink2(source2());
assert(A::count == 0);
sink3(source3());
assert(A::count == 0);
}
assert(A::count == 0);
}
void init_logging()
{
boost::shared_ptr< logging::core > core = logging::core::get();
// The simplest way, the backend is default-constructed
boost::shared_ptr< sink_t > sink1(new sink_t());
core->add_sink(sink1);
// One can construct backend separately and pass it to the frontend
boost::shared_ptr< my_backend > backend(new my_backend());
boost::shared_ptr< sink_t > sink2(new sink_t(backend));
core->add_sink(sink2);
// You can manage filtering through the sink interface
sink1->set_filter(expr::attr< severity_level >("Severity") >= warning);
sink2->set_filter(expr::attr< std::string >("Channel") == "net");
}
void test()
{
//Single unique_ptr
reset_counters();
sink1(source1());
sink2(source2());
sink3(source3());
BOOST_TEST(A::count == 0);
//Unbounded array unique_ptr
reset_counters();
sink1_unbounded_array(source1_unbounded_array());
sink2_unbounded_array(source2_unbounded_array());
sink3_unbounded_array(source3_unbounded_array());
BOOST_TEST(A::count == 0);
//Bbounded array unique_ptr
reset_counters();
sink1_bounded_array(source1_bounded_array());
sink2_bounded_array(source2_bounded_array());
sink3_bounded_array(source3_bounded_array());
BOOST_TEST(A::count == 0);
}
/*
* @file sim-hlt-tpc.C
* @brief HLT Conformal mapping tracker embedded into AliRoot simulation.
*
* Example macro to run the HLT Conformal mapping tracker embedded into
* AliRoot simulation. The reconstruction is done from the TPC digits.
*
* Usage: aliroot -b -q sim-hlt-tpc.C | tee sim-hlt-tpc.log
*
* The chain to be run is defined within the macro. The input data is
* read from the TPC.Digits.
*
* The following options can be specified comma separated in a string:
* <pre>
* aliroot -b -q sim-hlt-tpc.C'("options")'
* CA use the cellular automaton tracker and track merger
* CM use the conformal mapping tracker and track merger
* SORTED use CF pre-sorting and corresponding sequential CF
* algorithm, by default the algorithm capable of reading
* unsorted data is used
* RAW write raw data for all detectors
* RAWHLT write raw data only for HLT
* MC propagate the MC information
* </pre>
*
* The macro asumes the data to be already simulated. If it should run
* within the initial simulation, comment the corresponding functions
* below (SetRunGeneration etc.)
*
* @author [email protected]
* @ingroup alihlt_tpc
*/
sim_hlt_tpc(const char* options="CA")
{
// this is just a tool to switch the logging systems
AliHLTLogging log;
//log.SwitchAliLog(0);
///////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////
//
// scanning the options
//
bool bUseCA=true; // use the CA tracker and merger
bool bCFSort=false; // CF pre-sorting and sequential CF algorithm
bool bRawData=false;// raw data for all detectors
bool bRawHLTData=false; // raw data only for HLT
bool bPropagateMC=false;
TString tsOptions=options;
TObjArray* pTokens=tsOptions.Tokenize(",");
if (pTokens) {
for (int n=0; n<pTokens->GetEntries(); n++) {
TString arg=((TObjString*)pTokens->At(n))->GetString();
if (arg.CompareTo("ca", TString::kIgnoreCase)==0) {
bUseCA=true;
} else if (arg.CompareTo("cm", TString::kIgnoreCase)==0) {
bUseCA=false;
} else if (arg.CompareTo("sorted", TString::kIgnoreCase)==0) {
bCFSort=true;
} else if (arg.CompareTo("unsorted", TString::kIgnoreCase)==0) {
bCFSort=false;
} else if (arg.CompareTo("raw", TString::kIgnoreCase)==0) {
bRawData=true;
} else if (arg.CompareTo("rawhlt", TString::kIgnoreCase)==0) {
bRawHLTData=true;
} else if (arg.CompareTo("mc", TString::kIgnoreCase)==0) {
bPropagateMC=true;
} else {
cout << "unknown argument: " << arg << endl;
return 0;
}
}
delete pTokens;
}
// summary
cout << "using " << bUseCA?"CA":"CM" << " tracker" << endl;
///////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////
//
// init the HLT system in order to define the analysis chain below
//
AliHLTSystem* gHLT=AliHLTPluginBase::GetInstance();
///////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////
//
// define the analysis chain
//
// load TPCParam from OCDB
const char* cdbEntry="TPC/Calib/Parameters";
AliCDBManager* pMan=AliCDBManager::Instance();
AliTPCParam* pTPCParam=NULL;
if (pMan) {
if (!pMan->IsDefaultStorageSet()) {
pMan->SetDefaultStorage("local://$ALICE_ROOT/OCDB");
pMan->SetRun(0);
}
AliCDBEntry *pEntry = pMan->Get(cdbEntry);
if (pEntry &&
pEntry->GetObject() &&
(pTPCParam=dynamic_cast<AliTPCParam*>(pEntry->GetObject()))) {
} else {
HLTWarning("can not load AliTPCParam from CDB entry %s", cdbEntry);
}
}
int iMinSlice=0;
int iMaxSlice=35;
int iMinPart=0;
int iMaxPart=5;
TString mergerInput;
TString writerInput;
TString sinkClusterInput;
for (int slice=iMinSlice; slice<=iMaxSlice; slice++) {
TString trackerInput;
for (int part=iMinPart; part<=iMaxPart; part++) {
TString arg, publisher, cf;
// digit publisher components
arg.Form("-slice %d -partition %d", slice, part);
publisher.Form("DP_%02d_%d", slice, part);
AliHLTConfiguration pubconf(publisher.Data(), "TPCDigitPublisher", NULL , arg.Data());
// cluster finder components
arg="-timebins ";
if (pTPCParam) arg+=pTPCParam->GetMaxTBin()+1;
else arg+=446; // old simulated data
if (bCFSort) arg+=" -sorted ";
if (bPropagateMC) arg+=" -do-mc ";
cf.Form("CF_%02d_%d", slice, part);
AliHLTConfiguration cfconf(cf.Data(), "TPCClusterFinderUnpacked", publisher.Data(), arg.Data());
if (trackerInput.Length()>0) trackerInput+=" ";
trackerInput+=cf;
if (sinkClusterInput.Length()>0) sinkClusterInput+=" ";
sinkClusterInput+=cf;
}
TString tracker;
// tracker finder components
tracker.Form("TR_%02d", slice);
if (bUseCA) {
AliHLTConfiguration trackerconf(tracker.Data(), "TPCCATracker", trackerInput.Data(), "");
} else {
AliHLTConfiguration trackerconf(tracker.Data(), "TPCSliceTracker", trackerInput.Data(), "-pp-run");
}
//add all trackers to writer input. Include if you would like all slice tracks written.
//if (writerInput.Length()>0) writerInput+=" ";
//writerInput+=tracker;
// add all clusterfinders to the writer input
if (writerInput.Length()>0) writerInput+=" ";
writerInput+=trackerInput;
if (mergerInput.Length()>0) mergerInput+=" ";
mergerInput+=tracker;
}
// GlobalMerger component
if (bUseCA) {
AliHLTConfiguration mergerconf("globalmerger","TPCCAGlobalMerger",mergerInput.Data(),"");
} else {
AliHLTConfiguration mergerconf("globalmerger","TPCGlobalMerger",mergerInput.Data(),"");
}
TString converterInput="globalmerger";
// collector for the MC information to be propagated from CFs to ESDConverter
if (bPropagateMC){
AliHLTConfiguration mcinfo("mcinfo", "BlockFilter" , sinkClusterInput.Data(), "-datatype 'CLMCINFO' 'TPC '");
AliHLTConfiguration mcTrackMarker("mcTrackMarker","TPCTrackMCMarker","globalmerger mcinfo","" );
converterInput+=" mcTrackMarker";
}
if (writerInput.Length()>0) writerInput+=" ";
writerInput+="globalmerger";
//////////////////////////////////////////////////////////////////////////////////////////
//
// output section
//
//////////////////////////////////////////////////////////////////////////////////////////
// sink1: id=sink-writeall write all blocks
AliHLTConfiguration sink1("sink-writeall", "FileWriter" , writerInput.Data(), "-specfmt -subdir=event_%d -blcknofmt=_0x%x -idfmt=_0x%08x");
//////////////////////////////////////////////////////////////////////////////////////////
// sink2: id=sink-esd-file write ESD using the TPCEsdWriter
AliHLTConfiguration sink2("sink-esd-file", "TPCEsdWriter" , converterInput.Data(), "-datafile AliHLTESDs.root");
//////////////////////////////////////////////////////////////////////////////////////////
// sink3: id=sink-esd add ESD to HLTOUT using the TPCEsdConverter
// the esd converter configuration
AliHLTConfiguration sink3("sink-esd", "TPCEsdConverter" , converterInput.Data(), "");
//////////////////////////////////////////////////////////////////////////////////////////
// sink4: id=sink-clusters add cluster data blocks to HLTOUT
AliHLTConfiguration sink4("sink-clusters", "BlockFilter" , sinkClusterInput.Data(), "-datatype 'CLUSTERS' 'TPC '");
///////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////
///////////////////////////////////////////////////////////////////////////////////////////////////
//
// Init and run the HLT simulation
// All but HLT simulation is switched off
//
AliSimulation sim;
// switch of simulation and data generation
// comment all that stuff to also simulate the events and data
sim.SetRunGeneration(kFALSE);
sim.SetMakeDigits("");
sim.SetMakeSDigits("");
sim.SetMakeDigitsFromHits("");
//sim.SetMakeTrigger("");
sim.SetRunQA(":");
// the normal simulation sets the specific storage for the GRP entry
if (gSystem->AccessPathName("GRP/GRP/Data")) {
cerr << "*********************************************************" << endl;
cerr << "error: no GRP entry found in the currect directory, simulation might be incomplete. Skip setting specific storage for GRP entry" << endl;
cerr << "*********************************************************" << endl << endl;
} else {
sim.SetSpecificStorage("GRP/GRP/Data",
Form("local://%s",gSystem->pwd()));
}
TString rawDataSelection="HLT";
if (bRawData) rawDataSelection="ALL";
if (bRawHLTData || bRawData) sim.SetWriteRawData(rawDataSelection, "raw.root", kTRUE);
// set the options for the HLT simulation
sim.SetRunHLT("libAliHLTUtil.so libAliHLTTPC.so loglevel=0x7c "
"chains=sink-esd,sink-clusters");
sim.Run();
}
int main()
{
Source src(100);
Pipe pipe1(80);
Valve valve1(on);
Tank tank1(60);
Switch switch1(&tank1,300);
Switch switch2(&tank1, 50);
Pipe pipe2(80);
Sink sink1(30);
Pipe pipe3(40);
Valve valve2(on);
Tank tank2(80);
Switch switch3(&tank2, 250);
Switch switch4(&tank2, 50);
Sink sink2(20);
while( !kbhit() )
{
src>=pipe1;
pipe1>=valve1;
valve1>=tank1;
Tee(tank1,pipe2,pipe3);
pipe2>=sink1;
pipe3>=valve2;
valve2>=tank2;
tank2>=sink2;
src.Tick();
pipe1.Tick();
valve1.Tick();
tank1.Tick();
switch1.Tick();
switch2.Tick();
pipe2.Tick();
sink1.Tick();
pipe3.Tick();
valve2.Tick();
tank2.Tick();
switch3.Tick();
switch4.Tick();
sink2.Tick();
if(valve1.Status()==on&& switch1.Status()==on)
valve1.Status()=off;
if (valve1.Status()==off && switch2.Status()==off)
valve1.Status()=on;
if(valve2.Status()==on && switch3.Status()==on)
valve2.Status()=off;
if(valve2.Status()==off && switch4.Status()==off)
valve2.Status()=on;
cout<<" Src=" <<setw(2)<<src.Flow();
cout<<" p1="<<setw(2)<<pipe1.Flow();
if(valve1.Status()==off)
cout<<" v1=off";
else
cout<<" v1=on";
cout<<" T1="<<setw(3)<<tank1.Contents();
cout<<" p2="<<setw(2)<<pipe2.Flow();
cout<<" Sink1= "<<setw(2)<<sink1.Flow();
cout<<" p3="<<setw(2)<<pipe3.Flow();
if(valve2.Status()==off)
cout<<" v2=off";
else
cout<<" v2=on";
cout<<" T2= "<<setw(3)<<tank2.Contents();
cout<<" sink2= "<<setw(2)<<sink2.Flow();
cout<<"\n";
}
return 0;
}
