void FORTE_BL_PWM::executeEvent(int pa_nEIID){
bool bRet = true;
switch(pa_nEIID){
case scm_nEventINITID:
if(m_poPWM != NULL){
//Fix output before stopping the PWM
//TODO:Handle the PWM output level when stopping it
m_poPWM->setRunState(BlackLib::stop);
delete m_poPWM;
m_poPWM = NULL;
}
if(QI() == true){
char * pacBuffer = new char[PARAMS().length() + 3];
PARAMS().toString(pacBuffer, sizeof(char)*(PARAMS().length() + 3));
if (strncmp(pacBuffer, "\'EHRPWM2B\'", 10) == 0) {
m_poPWM = new BlackLib::BlackPWM(BlackLib::EHRPWM2B);
} else if (strncmp(pacBuffer, "\'EHRPWM2A\'", 10) == 0) {
m_poPWM = new BlackLib::BlackPWM(BlackLib::EHRPWM2A);
} else if (strncmp(pacBuffer, "\'EHRPWM1A\'", 10) == 0) {
m_poPWM = new BlackLib::BlackPWM(BlackLib::EHRPWM1A);
} else if (strncmp(pacBuffer, "\'EHRPWM1B\'", 10) == 0) {
m_poPWM = new BlackLib::BlackPWM(BlackLib::EHRPWM1B);
} else if (strncmp(pacBuffer, "\'EHRPWM0B\'", 10) == 0) {
m_poPWM = new BlackLib::BlackPWM(BlackLib::EHRPWM0B);
} else if (strncmp(pacBuffer, "\'EHRPWM0A\'", 10) == 0) {
m_poPWM = new BlackLib::BlackPWM(BlackLib::EHRPWM0A);
} else if (strncmp(pacBuffer, "\'ECAP0\'", 7) == 0) {
m_poPWM = new BlackLib::BlackPWM(BlackLib::ECAP0);
} else {
delete[] pacBuffer;
DEVLOG_ERROR("Invalid input PARAM in BL_PWM FB\n");
STATUS() = "Input PARAM error";
QO() = false;
sendOutputEvent(scm_nEventINITOID);
break;
}
delete[] pacBuffer;
bRet = m_poPWM->setRunState(BlackLib::stop);
bRet = bRet && m_poPWM->setDutyPercent(0.0);
bRet = bRet && m_poPWM->setPeriodTime(Period().getInMicroSeconds(), BlackLib::microsecond);
bRet = bRet && m_poPWM->setDutyPercent(Duty());
if(Polarity() == true){
bRet = bRet && m_poPWM->setPolarity(BlackLib::straight);
}else{
bRet = bRet && m_poPWM->setPolarity(BlackLib::reverse);
}
bRet = bRet && m_poPWM->setRunState(BlackLib::run);
if(bRet == true){
//PWM configuration OK
STATUS() ="OK";
QO() = true;
}else{
//PWM configuration Error
DEVLOG_DEBUG("Invalid configuration parameters in BL_PWM FB\n");
STATUS() ="Configuration Error";
QO() = false;
}
}else{
STATUS() = "INIT- OK";
QO() = false;
}
sendOutputEvent(scm_nEventINITOID);
break;
case scm_nEventUpdateID:
if (m_poPWM == NULL){
//PWM must be initialized before updating configuration
DEVLOG_ERROR("Trying to update before initializing PWM\n");
STATUS() = "ERROR updating PWM";
QO()=false;
sendOutputEvent(scm_nEventCNFID);
break;
}
bRet = m_poPWM->setDutyPercent(0.0);
bRet = bRet && m_poPWM->setPeriodTime(Period().getInMicroSeconds(), BlackLib::microsecond);
bRet = bRet && m_poPWM->setDutyPercent(Duty());
if(Polarity() == false){
//BlackLib polarity seems to be inverse; For us straight is HIGH->LOW
bRet = bRet && m_poPWM->setPolarity(BlackLib::straight);
}else{
bRet = bRet && m_poPWM->setPolarity(BlackLib::reverse);
}
if(bRet == true){
//PWM configuration OK
STATUS() ="OK";
QO() = true;
}else{
//PWM configuration Error
DEVLOG_DEBUG("Invalid configuration parameters in BL_PWM FB\n");
STATUS() ="Configuration Error";
QO() = false;
}
sendOutputEvent(scm_nEventCNFID);
break;
case scm_nEventStartID:
if(m_poPWM != NULL){
if(m_poPWM->setRunState(BlackLib::run)){
QI() = true;
STATUS() = "Running";
}else{
//Could not start PWM
DEVLOG_ERROR("Unable to run PWM\n");
STATUS() = "ERROR running PWM";
QO()=false;
}
}else{
QI() = false;
STATUS() = "PWM not initialized";
}
sendOutputEvent(scm_nEventCNFID);
break;
case scm_nEventStopID:
if (m_poPWM != NULL){
//TODO:Handle the PWM output level when stopping it
if(m_poPWM->setRunState(BlackLib::stop)){
STATUS() = "PWM Stopped";
QO()=true;
}else{
//Could not stop PWM
DEVLOG_ERROR("Unable to stop PWM\n");
STATUS() = "ERROR stopping PWM";
QO()=false;
}
}else{
QI() = false;
STATUS() = "PWM not initialized";
}
sendOutputEvent(scm_nEventCNFID);
break;
}
}
MakeOIS& MakeOIS::withTerminationDate(const Date& terminationDate) {
terminationDate_ = terminationDate;
swapTenor_ = Period();
return *this;
}
ThresholdState AbstractThresholdConditionChecker::GetStateFor(const CBlockIndex* pindexPrev, const Consensus::Params& params, ThresholdConditionCache& cache) const
{
int nPeriod = Period(params);
int nThreshold = Threshold(params);
int64_t nTimeStart = BeginTime(params);
int64_t nTimeTimeout = EndTime(params);
// Check if this deployment is always active.
if (nTimeStart == Consensus::BIP9Deployment::ALWAYS_ACTIVE) {
return THRESHOLD_ACTIVE;
}
// A block's state is always the same as that of the first of its period, so it is computed based on a pindexPrev whose height equals a multiple of nPeriod - 1.
if (pindexPrev != nullptr) {
pindexPrev = pindexPrev->GetAncestor(pindexPrev->nHeight - ((pindexPrev->nHeight + 1) % nPeriod));
}
// Walk backwards in steps of nPeriod to find a pindexPrev whose information is known
std::vector<const CBlockIndex*> vToCompute;
while (cache.count(pindexPrev) == 0) {
if (pindexPrev == nullptr) {
// The genesis block is by definition defined.
cache[pindexPrev] = THRESHOLD_DEFINED;
break;
}
if (pindexPrev->GetMedianTimePast() < nTimeStart) {
// Optimization: don't recompute down further, as we know every earlier block will be before the start time
cache[pindexPrev] = THRESHOLD_DEFINED;
break;
}
vToCompute.push_back(pindexPrev);
pindexPrev = pindexPrev->GetAncestor(pindexPrev->nHeight - nPeriod);
}
// At this point, cache[pindexPrev] is known
assert(cache.count(pindexPrev));
ThresholdState state = cache[pindexPrev];
// Now walk forward and compute the state of descendants of pindexPrev
while (!vToCompute.empty()) {
ThresholdState stateNext = state;
pindexPrev = vToCompute.back();
vToCompute.pop_back();
switch (state) {
case THRESHOLD_DEFINED: {
if (pindexPrev->GetMedianTimePast() >= nTimeTimeout) {
stateNext = THRESHOLD_FAILED;
} else if (pindexPrev->GetMedianTimePast() >= nTimeStart) {
stateNext = THRESHOLD_STARTED;
}
break;
}
case THRESHOLD_STARTED: {
if (pindexPrev->GetMedianTimePast() >= nTimeTimeout) {
stateNext = THRESHOLD_FAILED;
break;
}
// We need to count
const CBlockIndex* pindexCount = pindexPrev;
int count = 0;
for (int i = 0; i < nPeriod; i++) {
if (Condition(pindexCount, params)) {
count++;
}
pindexCount = pindexCount->pprev;
}
if (count >= nThreshold) {
stateNext = THRESHOLD_LOCKED_IN;
}
break;
}
case THRESHOLD_LOCKED_IN: {
// Always progresses into ACTIVE.
stateNext = THRESHOLD_ACTIVE;
break;
}
case THRESHOLD_FAILED:
case THRESHOLD_ACTIVE: {
// Nothing happens, these are terminal states.
break;
}
}
cache[pindexPrev] = state = stateNext;
}
return state;
}
MakeVanillaSwap&
MakeVanillaSwap::withTerminationDate(const Date& terminationDate) {
terminationDate_ = terminationDate;
swapTenor_ = Period();
return *this;
}
bool CREAMClient::createDelegation(const std::string& delegation_id,
const std::string& proxy) {
logger.msg(VERBOSE, "Creating delegation");
action = "getProxyReq";
PayloadSOAP req(cream_ns);
req.NewChild("deleg:" + action).NewChild("delegationID") = delegation_id;
XMLNode response;
if (!process(req, response, "http://www.gridsite.org/namespaces/delegation-2/")) return false;
std::string proxyRequestStr = (std::string)response["getProxyReqReturn"];
if (proxyRequestStr.empty()) {
logger.msg(VERBOSE, "Malformed response: missing getProxyReqReturn");
return false;
}
//Sign the proxy certificate
Credential signer(proxy, "", cadir, cafile);
std::string signedCert;
// TODO: Hardcoded time shift - VERY BAD approach
Time start_time = Time() - Period(300);
Time end_time = signer.GetEndTime();
if(end_time < start_time) {
logger.msg(VERBOSE, "Delegatable credentials expired: %s",end_time.str());
return false;
}
// CREAM is picky about end time of delegated credentials, so
// make sure it does not exceed end time of signer
Credential proxy_cred(start_time,end_time-start_time);
proxy_cred.InquireRequest(proxyRequestStr);
proxy_cred.SetProxyPolicy("gsi2", "", "", -1);
if (!(signer.SignRequest(&proxy_cred, signedCert))) {
logger.msg(VERBOSE, "Failed signing certificate request");
return false;
}
std::string signedOutputCert, signedOutputCertChain;
signer.OutputCertificate(signedOutputCert);
signer.OutputCertificateChain(signedOutputCertChain);
signedCert.append(signedOutputCert).append(signedOutputCertChain);
action = "putProxy";
req = PayloadSOAP(cream_ns);
XMLNode putProxyRequest = req.NewChild("deleg:" + action);
putProxyRequest.NewChild("delegationID") = delegation_id;
putProxyRequest.NewChild("proxy") = signedCert;
response = XMLNode();
if (!process(req, response, "http://www.gridsite.org/namespaces/delegation-2/"))
return false;
if (!response) {
logger.msg(VERBOSE, "Failed putting signed delegation certificate to service");
return false;
}
return true;
}
// Stock의 경우 Tenor를 Default로 사용. 나중에 DLS MC를 위해 작성되었음.
virtual Period tenor() const{return Period();}
Rate YoYInflationIndex::fixing(const Date& fixingDate,
bool /*forecastTodaysFixing*/) const {
Date today = Settings::instance().evaluationDate();
Date todayMinusLag = today - availabilityLag_;
std::pair<Date,Date> lim = inflationPeriod(todayMinusLag, frequency_);
Date lastFix = lim.first-1;
Date flatMustForecastOn = lastFix+1;
Date interpMustForecastOn = lastFix+1 - Period(frequency_);
if (interpolated() && fixingDate >= interpMustForecastOn) {
return forecastFixing(fixingDate);
}
if (!interpolated() && fixingDate >= flatMustForecastOn) {
return forecastFixing(fixingDate);
}
// four cases with ratio() and interpolated()
if (ratio()) {
if(interpolated()){ // IS ratio, IS interpolated
std::pair<Date,Date> lim = inflationPeriod(fixingDate, frequency_);
Date fixMinus1Y=NullCalendar().advance(fixingDate, -1*Years, ModifiedFollowing);
std::pair<Date,Date> limBef = inflationPeriod(fixMinus1Y, frequency_);
Real dp= lim.second + 1 - lim.first;
Real dpBef=limBef.second + 1 - limBef.first;
Real dl = fixingDate-lim.first;
// potentially does not work on 29th Feb
Real dlBef = fixMinus1Y - limBef.first;
// get the four relevant fixings
// recall that they are stored flat for every day
Rate limFirstFix =
IndexManager::instance().getHistory(name())[lim.first];
QL_REQUIRE(limFirstFix != Null<Rate>(),
"Missing " << name() << " fixing for "
<< lim.first );
Rate limSecondFix =
IndexManager::instance().getHistory(name())[lim.second+1];
QL_REQUIRE(limSecondFix != Null<Rate>(),
"Missing " << name() << " fixing for "
<< lim.second+1 );
Rate limBefFirstFix =
IndexManager::instance().getHistory(name())[limBef.first];
QL_REQUIRE(limBefFirstFix != Null<Rate>(),
"Missing " << name() << " fixing for "
<< limBef.first );
Rate limBefSecondFix =
IndexManager::instance().getHistory(name())[limBef.second+1];
QL_REQUIRE(limBefSecondFix != Null<Rate>(),
"Missing " << name() << " fixing for "
<< limBef.second+1 );
Real linearNow = limFirstFix + (limSecondFix-limFirstFix)*dl/dp;
Real linearBef = limBefFirstFix + (limBefSecondFix-limBefFirstFix)*dlBef/dpBef;
Rate wasYES = linearNow / linearBef - 1.0;
return wasYES;
} else { // IS ratio, NOT interpolated
Rate pastFixing =
IndexManager::instance().getHistory(name())[fixingDate];
QL_REQUIRE(pastFixing != Null<Rate>(),
"Missing " << name() << " fixing for "
<< fixingDate);
Date previousDate = fixingDate - 1*Years;
Rate previousFixing =
IndexManager::instance().getHistory(name())[previousDate];
QL_REQUIRE(previousFixing != Null<Rate>(),
"Missing " << name() << " fixing for "
<< previousDate );
return pastFixing/previousFixing - 1.0;
}
} else { // NOT ratio
if (interpolated()) { // NOT ratio, IS interpolated
std::pair<Date,Date> lim = inflationPeriod(fixingDate, frequency_);
Real dp= lim.second + 1 - lim.first;
Real dl = fixingDate-lim.first;
Rate limFirstFix =
IndexManager::instance().getHistory(name())[lim.first];
QL_REQUIRE(limFirstFix != Null<Rate>(),
"Missing " << name() << " fixing for "
<< lim.first );
Rate limSecondFix =
IndexManager::instance().getHistory(name())[lim.second+1];
QL_REQUIRE(limSecondFix != Null<Rate>(),
"Missing " << name() << " fixing for "
<< lim.second+1 );
Real linearNow = limFirstFix + (limSecondFix-limFirstFix)*dl/dp;
return linearNow;
} else { // NOT ratio, NOT interpolated
// so just flat
Rate pastFixing =
IndexManager::instance().getHistory(name())[fixingDate];
QL_REQUIRE(pastFixing != Null<Rate>(),
"Missing " << name() << " fixing for "
<< fixingDate);
return pastFixing;
}
}
// QL_FAIL("YoYInflationIndex::fixing, should never get here");
}
CPICapFloorTermPriceSurface::
CPICapFloorTermPriceSurface(Real nominal,
Real baseRate, // avoids an uncontrolled crash if index has no TS
const Period &observationLag,
const Calendar &cal, // calendar in index may not be useful
const BusinessDayConvention &bdc,
const DayCounter &dc,
const Handle<ZeroInflationIndex>& zii,
const Handle<YieldTermStructure>& yts,
const std::vector<Rate> &cStrikes,
const std::vector<Rate> &fStrikes,
const std::vector<Period> &cfMaturities,
const Matrix &cPrice,
const Matrix &fPrice)
: InflationTermStructure(0, cal, baseRate, observationLag, zii->frequency(),
zii->interpolated(), yts, dc),
bdc_(bdc), zii_(zii),
cStrikes_(cStrikes), fStrikes_(fStrikes),
cfMaturities_(cfMaturities), cPrice_(cPrice), fPrice_(fPrice) {
// does the index have a TS?
QL_REQUIRE(!zii_->zeroInflationTermStructure().empty(),"ZITS missing from index");
QL_REQUIRE(!this->nominalTermStructure().empty(),"nominal TS missing");
// data consistency checking, enough data?
QL_REQUIRE(fStrikes_.size() > 1, "not enough floor strikes");
QL_REQUIRE(cStrikes_.size() > 1, "not enough cap strikes");
QL_REQUIRE(cfMaturities_.size() > 1, "not enough maturities");
QL_REQUIRE(fStrikes_.size() == fPrice.rows(),
"floor strikes vs floor price rows not equal");
QL_REQUIRE(cStrikes_.size() == cPrice.rows(),
"cap strikes vs cap price rows not equal");
QL_REQUIRE(cfMaturities_.size() == fPrice.columns(),
"maturities vs floor price columns not equal");
QL_REQUIRE(cfMaturities_.size() == cPrice.columns(),
"maturities vs cap price columns not equal");
// data has correct properties (positive, monotonic)?
for(Size j = 0; j <cfMaturities_.size(); j++) {
QL_REQUIRE( cfMaturities[j] > Period(0,Days), "non-positive maturities");
if(j>0) {
QL_REQUIRE( cfMaturities[j] > cfMaturities[j-1],
"non-increasing maturities");
}
for(Size i = 0; i <fPrice_.rows(); i++) {
QL_REQUIRE( fPrice_[i][j] > 0.0,
"non-positive floor price: " << fPrice_[i][j] );
if(i>0) {
QL_REQUIRE( fPrice_[i][j] >= fPrice_[i-1][j],
"non-increasing floor prices");
}
}
for(Size i = 0; i <cPrice_.rows(); i++) {
QL_REQUIRE( cPrice_[i][j] > 0.0,
"non-positive cap price: " << cPrice_[i][j] );
if(i>0) {
QL_REQUIRE( cPrice_[i][j] <= cPrice_[i-1][j],
"non-decreasing cap prices: "
<< cPrice_[i][j] << " then " << cPrice_[i-1][j]);
}
}
}
// Get the set of strikes, noting that repeats, overlaps are
// expected between caps and floors but that no overlap in the
// output is allowed so no repeats or overlaps are used
cfStrikes_ = std::vector<Rate>();
for(Size i = 0; i <fStrikes_.size(); i++)
cfStrikes_.push_back( fStrikes[i] );
Real eps = 0.0000001;
Rate maxFstrike = fStrikes_.back();
for(Size i = 0; i < cStrikes_.size(); i++) {
Rate k = cStrikes[i];
if (k > maxFstrike + eps) cfStrikes_.push_back(k);
}
// final consistency checking
QL_REQUIRE(cfStrikes_.size() > 2, "overall not enough strikes");
for (Size i = 1; i < cfStrikes_.size(); i++)
QL_REQUIRE( cfStrikes_[i] > cfStrikes_[i-1],
"cfStrikes not increasing");
}
KRWibor3M(const Handle<YieldTermStructure>& h =
Handle<YieldTermStructure>())
: KRWibor(Period(3, Months), h) {}
int main(int argc, char * argv[]) {
// first argument - config file
// second argument - filelist
// using namespace std;
//const int CutNumb = 8;
//string CutList[CutNumb]={"No cut","Trigger","1l","lept-Veto","b-Veto","MET $>$ 50","MET $>$ 100","dPhi $>$ 1"};
// **** configuration
Config cfg(argv[1]);
string Channel="mutau";
// kinematic cuts on electrons
bool fillplots= false;
bool Wtemplate= true;
const bool isData = cfg.get<bool>("IsData");
const bool applyPUreweighting = cfg.get<bool>("ApplyPUreweighting");
const bool applyPUreweighting_vertices = cfg.get<bool>("ApplyPUreweighting_vertices");
const bool applyPUreweighting_official = cfg.get<bool>("ApplyPUreweighting_official");
const bool applyLeptonSF = cfg.get<bool>("ApplyLeptonSF");
const bool InvertTauIso = cfg.get<bool>("InvertTauIso");
const bool InvertLeptonIso = cfg.get<bool>("InvertLeptonIso");
const bool InvertMET = cfg.get<bool>("InvertMET");
const double ptElectronLowCut = cfg.get<double>("ptElectronLowCut");
const double ptElectronHighCut = cfg.get<double>("ptElectronHighCut");
const double etaElectronCut = cfg.get<double>("etaElectronCut");
const double dxyElectronCut = cfg.get<double>("dxyElectronCut");
const double dzElectronCut = cfg.get<double>("dzElectronCut");
const double isoElectronLowCut = cfg.get<double>("isoElectronLowCut");
const double isoElectronHighCut = cfg.get<double>("isoElectronHighCut");
const bool applyElectronId = cfg.get<bool>("ApplyElectronId");
// vertex cuts
const double ndofVertexCut = cfg.get<double>("NdofVertexCut");
const double zVertexCut = cfg.get<double>("ZVertexCut");
const double dVertexCut = cfg.get<double>("DVertexCut");
// kinematic cuts on muons
const double ptMuonLowCut = cfg.get<double>("ptMuonLowCut");
const double ptMuonHighCut = cfg.get<double>("ptMuonHighCut");
const double etaMuonCut = cfg.get<double>("etaMuonCut");
const double dxyMuonCut = cfg.get<double>("dxyMuonCut");
const double dzMuonCut = cfg.get<double>("dzMuonCut");
const double isoMuonLowCut = cfg.get<double>("isoMuonLowCut");
const double isoMuonHighCut = cfg.get<double>("isoMuonHighCut");
const double isoMuonHighCutQCD = cfg.get<double>("isoMuonHighCutQCD");
const bool applyMuonId = cfg.get<bool>("ApplyMuonId");
const double ptTauLowCut = cfg.get<double>("ptTauLowCut");
const double etaTauCut = cfg.get<double>("etaTauCut");
const string dataBaseDir = cfg.get<string>("DataBaseDir");
string TrigLeg ;
if (!isData) TrigLeg = cfg.get<string>("Mu17LegMC");
if (isData) TrigLeg = cfg.get<string>("Mu18LegData");
const string Mu17Tau20MuLegA = cfg.get<string>("Mu17Tau20MuLegA");
const string Mu17Tau20MuLegB = cfg.get<string>("Mu17Tau20MuLegB");
const string Mu17Tau20TauLegA = cfg.get<string>("Mu17Tau20TauLegA");
const string Mu17Tau20TauLegB = cfg.get<string>("Mu17Tau20TauLegB");
const string SingleMuonTriggerFile = cfg.get<string>("Muon17TriggerEff");
const float singleMuonTriggerPtCut = cfg.get<float>("SingleMuonTriggerPtCut");
const float singleMuonTriggerEtaCut = cfg.get<float>("SingleMuonTriggerEtaCut");
const string Region = cfg.get<string>("Region");
const string Sign = cfg.get<string>("Sign");
const double leadchargedhadrcand_dz = cfg.get<double>("leadchargedhadrcand_dz");
const double leadchargedhadrcand_dxy = cfg.get<double>("leadchargedhadrcand_dxy");
// kinematic cuts on Jets
const double etaJetCut = cfg.get<double>("etaJetCut");
const double ptJetCut = cfg.get<double>("ptJetCut");
// topological cuts
const double dRleptonsCutmutau = cfg.get<double>("dRleptonsCutmutau");
const double dZetaCut = cfg.get<double>("dZetaCut");
const double deltaRTrigMatch = cfg.get<double>("DRTrigMatch");
const bool oppositeSign = cfg.get<bool>("oppositeSign");
const bool isIsoR03 = cfg.get<bool>("IsIsoR03");
// tau
const double taupt = cfg.get<double>("taupt");
const double taueta = cfg.get<double>("taueta");
const double decayModeFinding = cfg.get<double>("decayModeFinding");
const double decayModeFindingNewDMs = cfg.get<double>("decayModeFindingNewDMs");
const double againstElectronVLooseMVA5 = cfg.get<double>("againstElectronVLooseMVA5");
const double againstMuonTight3 = cfg.get<double>("againstMuonTight3");
const double vertexz = cfg.get<double>("vertexz");
const double byCombinedIsolationDeltaBetaCorrRaw3Hits = cfg.get<double>("byCombinedIsolationDeltaBetaCorrRaw3Hits");
const unsigned int RunRangeMin = cfg.get<unsigned int>("RunRangeMin");
const unsigned int RunRangeMax = cfg.get<unsigned int>("RunRangeMax");
// vertex distributions filenames and histname
const string vertDataFileName = cfg.get<string>("VertexDataFileName");
const string vertMcFileName = cfg.get<string>("VertexMcFileName");
const string vertHistName = cfg.get<string>("VertexHistName");
// lepton scale factors
const string muonSfDataBarrel = cfg.get<string>("MuonSfDataBarrel");
const string muonSfDataEndcap = cfg.get<string>("MuonSfDataEndcap");
const string muonSfMcBarrel = cfg.get<string>("MuonSfMcBarrel");
const string muonSfMcEndcap = cfg.get<string>("MuonSfMcEndcap");
const string jsonFile = cfg.get<string>("jsonFile");
string cmsswBase = (getenv ("CMSSW_BASE"));
string fullPathToJsonFile = cmsswBase + "/src/DesyTauAnalyses/NTupleMaker/test/json/" + jsonFile;
const string MuonIdIsoFile = cfg.get<string>("MuonIdIsoEff");
const string TauFakeRateFile = cfg.get<string>("TauFakeRateEff");
// Run-lumi selector
std::vector<Period> periods;
if (isData) { // read the good runs
std::fstream inputFileStream(fullPathToJsonFile.c_str(), std::ios::in);
if (inputFileStream.fail() ) {
std::cout << "Error: cannot find json file " << fullPathToJsonFile << std::endl;
std::cout << "please check" << std::endl;
std::cout << "quitting program" << std::endl;
exit(-1);
}
for(std::string s; std::getline(inputFileStream, s); ) {
//std::fstream inputFileStream("temp", std::ios::in);
periods.push_back(Period());
std::stringstream ss(s);
ss >> periods.back();
}
}
TString MainTrigger(TrigLeg);
TString Muon17Tau20MuLegA (Mu17Tau20MuLegA );
TString Muon17Tau20MuLegB (Mu17Tau20MuLegB );
TString Muon17Tau20TauLegA (Mu17Tau20TauLegA );
TString Muon17Tau20TauLegB (Mu17Tau20TauLegB );
const double Lumi = cfg.get<double>("Lumi");
const double bTag = cfg.get<double>("bTag");
const double metcut = cfg.get<double>("metcut");
CutList.clear();
CutList.push_back("No cut");
CutList.push_back("No cut after PU");
CutList.push_back("$\\mu$");
CutList.push_back("$\\tau_h$");
CutList.push_back("Trigger");
CutList.push_back("2nd $\\ell$-Veto");
CutList.push_back("3rd $\\ell$-Veto");
CutList.push_back("Lepton SF");
CutList.push_back("TauFakeRate");
CutList.push_back("topPtRwgt");
CutList.push_back("${M}_T>60");
CutList.push_back("$ E_T^{\\rm miss}>$ 100");
CutList.push_back("Jets $<$3");
CutList.push_back("b-Veto");
CutList.push_back("$40<\\rm{Inv}_M<80");
CutList.push_back("$1.5<\\Delta R<4$");
int CutNumb = int(CutList.size());
xs=1;fact=1;fact2=1;
unsigned int RunMin = 9999999;
unsigned int RunMax = 0;
ifstream ifs("xsecs");
string line;
while(std::getline(ifs, line)) // read one line from ifs
{
fact=fact2=1;
istringstream iss(line); // access line as a stream
// we only need the first two columns
string dt,st1,st2;st1="stau2_1";st2="stau5_2";
iss >> dt >> xs >> fact >> fact2;
//ifs >> dt >> xs; // no need to read further
//cout<< " "<<dt<<" "<<endl;
//cout<< "For sample ========================"<<dt<<" xsecs is "<<xs<<" XSec "<<XSec<<" "<<fact<<" "<<fact2<<endl;
//if (dt==argv[2]) {
//if (std::string::npos != dt.find(argv[2])) {
if ( dt == argv[2]) {
XSec= xs*fact*fact2;
cout<<" Found the correct cross section "<<xs<<" for Dataset "<<dt<<" XSec "<<XSec<<endl;
}
/*
if ( argv[2] == st1) {ChiMass=100;mIntermediate=200;}
else if (argv[2] == st2) {ChiMass=200;mIntermediate=500;}
*/
if (isData) XSec=1.;
ChiMass=0.0;
}
if (XSec<0&& !isData) {cout<<" Something probably wrong with the xsecs...please check - the input was "<<argv[2]<<endl;return 0;}
std::vector<unsigned int> allRuns; allRuns.clear();
cout<<" ChiMass is "<<ChiMass<<" "<<mIntermediate<<endl;
bool doThirdLeptVeto=true;
bool doMuVeto=true;
//CutList[CutNumb]=CutListt[CutNumb];
char ff[100];
sprintf(ff,"%s/%s",argv[3],argv[2]);
if (applyPUreweighting_vertices and applyPUreweighting_official)
{std::cout<<"ERROR: Choose only ONE PU reweighting method (vertices or official, not both!) " <<std::endl; exit(-1);}
// reweighting with vertices
// reading vertex weights
TFile * fileDataNVert = new TFile(TString(cmsswBase)+"/src/"+dataBaseDir+"/"+vertDataFileName);
TFile * fileMcNVert = new TFile(TString(cmsswBase)+"/src/"+dataBaseDir+"/"+vertMcFileName);
TH1D * vertexDataH = (TH1D*)fileDataNVert->Get(TString(vertHistName));
TH1D * vertexMcH = (TH1D*)fileMcNVert->Get(TString(vertHistName));
float normVertexData = vertexDataH->GetSumOfWeights();
float normVertexMc = vertexMcH->GetSumOfWeights();
vertexDataH->Scale(1/normVertexData);
vertexMcH->Scale(1/normVertexMc);
PileUp * PUofficial = new PileUp();
TFile * filePUdistribution_data = new TFile(TString(cmsswBase)+"/src/DesyTauAnalyses/NTupleMaker/data/PileUpDistrib/Data_Pileup_2015D_Nov17.root","read");
TFile * filePUdistribution_MC = new TFile (TString(cmsswBase)+"/src/DesyTauAnalyses/NTupleMaker/data/PileUpDistrib/MC_Spring15_PU25_Startup.root", "read");
TH1D * PU_data = (TH1D *)filePUdistribution_data->Get("pileup");
TH1D * PU_mc = (TH1D *)filePUdistribution_MC->Get("pileup");
PUofficial->set_h_data(PU_data);
PUofficial->set_h_MC(PU_mc);
TFile *f10= new TFile(TString(cmsswBase)+"/src/DesyTauAnalyses/NTupleMaker/data/"+muonSfDataBarrel); // mu SF barrel data
TFile *f11 = new TFile(TString(cmsswBase)+"/src/DesyTauAnalyses/NTupleMaker/data/"+muonSfDataEndcap); // mu SF endcap data
TFile *f12= new TFile(TString(cmsswBase)+"/src/DesyTauAnalyses/NTupleMaker/data/"+muonSfMcBarrel); // mu SF barrel MC
TFile *f13 = new TFile(TString(cmsswBase)+"/src/DesyTauAnalyses/NTupleMaker/data/"+muonSfMcEndcap); // mu SF endcap MC
TGraphAsymmErrors *hEffBarrelData = (TGraphAsymmErrors*)f10->Get("ZMassBarrel");
TGraphAsymmErrors *hEffEndcapData = (TGraphAsymmErrors*)f11->Get("ZMassEndcap");
TGraphAsymmErrors *hEffBarrelMC = (TGraphAsymmErrors*)f12->Get("ZMassBarrel");
TGraphAsymmErrors *hEffEndcapMC = (TGraphAsymmErrors*)f13->Get("ZMassEndcap");
double * dataEffBarrel = new double[10];
double * dataEffEndcap = new double[10];
double * mcEffBarrel = new double[10];
double * mcEffEndcap = new double[10];
dataEffBarrel = hEffBarrelData->GetY();
dataEffEndcap = hEffEndcapData->GetY();
mcEffBarrel = hEffBarrelMC->GetY();
mcEffEndcap = hEffEndcapMC->GetY();
// Lepton Scale Factors
TH1D * MuSF_IdIso_Mu1H = new TH1D("MuIdIsoSF_Mu1H", "MuIdIsoSF_Mu1", 100, 0.5,1.5);
ScaleFactor * SF_muonIdIso;
if (applyLeptonSF) {
SF_muonIdIso = new ScaleFactor();
SF_muonIdIso->init_ScaleFactor(TString(cmsswBase)+"/src/"+TString(MuonIdIsoFile));
}
ScaleFactor * SF_muonTrigger = new ScaleFactor();
SF_muonTrigger->init_ScaleFactor(TString(cmsswBase)+"/src/"+TString(SingleMuonTriggerFile));
////////
cout<<" Will try to initialize the TFR now.... "<<endl;
ScaleFactor * SF_TFR;
bool applyTFR = true;
if (applyTFR) {
SF_TFR = new ScaleFactor();
SF_TFR->init_ScaleFactorb(TString(cmsswBase)+"/src/"+TString(TauFakeRateFile),applyTFR);
}
double Weight=0;
int nTotalFiles = 0;
int iCut=0;
double CFCounter[CutNumb];
double statUnc[CutNumb];
int iCFCounter[CutNumb];
for (int i=0;i < CutNumb; i++){
CFCounter[i] = 0;
iCFCounter[i] = 0;
statUnc[i] =0;
}
// file name and tree name
std::string rootFileName(argv[2]);
//std::ifstream fileList(argv[2]);
std::ifstream fileList(ff);
//std::ifstream fileList0(argv[2]);
std::ifstream fileList0(ff);
std::string ntupleName("makeroottree/AC1B");
std::string initNtupleName("initroottree/AC1B");
TString era=argv[3];
TString invMuStr,invTauStr,invMETStr;
if(InvertLeptonIso) invMuStr = "_InvMuIso_";
if(InvertTauIso) invTauStr = "_InvTauIso_";
if(InvertMET) invMETStr = "_InvMET_";
TString TStrName(rootFileName+invMuStr+invTauStr+invMETStr+"_"+Region+"_"+Sign);
std::cout <<" The filename will be "<<TStrName <<std::endl;
// output fileName with histograms
TFile * file;
if (isData) file = new TFile(era+"/"+TStrName+TString("_DataDriven.root"),"update");
if (!isData) file = new TFile(era+"/"+TStrName+TString(".root"),"update");
file->mkdir(Channel.c_str());
file->cd(Channel.c_str());
int nFiles = 0;
int nEvents = 0;
int selEvents = 0;
int selEventsAllMuons = 0;
int selEventsIdMuons = 0;
int selEventsIsoMuons = 0;
bool lumi=false;
bool isLowIsoMu=false;
bool isHighIsoMu = false;
bool isLowIsoTau=false;
bool isHighIsoTau = false;
std::string dummy;
// count number of files --->
while (fileList0 >> dummy) nTotalFiles++;
SetupHists(CutNumb);
if (argv[4] != NULL && atoi(argv[4])< nTotalFiles) nTotalFiles=atoi(argv[4]);
//if (nTotalFiles>50) nTotalFiles=50;
//nTotalFiles = 10;
for (int iF=0; iF<nTotalFiles; ++iF) {
std::string filen;
fileList >> filen;
std::cout << "file " << iF+1 << " out of " << nTotalFiles << " filename : " << filen << std::endl;
TFile * file_ = TFile::Open(TString(filen));
TH1D * histoInputEvents = NULL;
histoInputEvents = (TH1D*)file_->Get("makeroottree/nEvents");
if (histoInputEvents==NULL) continue;
int NE = int(histoInputEvents->GetEntries());
for (int iE=0;iE<NE;++iE)
inputEventsH->Fill(0.);
std::cout << " number of input events = " << NE << std::endl;
TTree * _inittree = NULL;
_inittree = (TTree*)file_->Get(TString(initNtupleName));
if (_inittree==NULL) continue;
Float_t genweight;
if (!isData)
_inittree->SetBranchAddress("genweight",&genweight);
Long64_t numberOfEntriesInitTree = _inittree->GetEntries();
std::cout << " number of entries in Init Tree = " << numberOfEntriesInitTree << std::endl;
for (Long64_t iEntry=0; iEntry<numberOfEntriesInitTree; iEntry++) {
_inittree->GetEntry(iEntry);
if (isData)
histWeightsH->Fill(0.,1.);
else
histWeightsH->Fill(0.,genweight);
}
TTree * _tree = NULL;
_tree = (TTree*)file_->Get(TString(ntupleName));
if (_tree==NULL) continue;
Long64_t numberOfEntries = _tree->GetEntries();
std::cout << " number of entries in Tree = " << numberOfEntries << std::endl;
AC1B analysisTree(_tree);
// if (std::string::npos != rootFileName.find("TTJetsLO") || std::string::npos != rootFileName.find("TTPow"))
//numberOfEntries = 1000;
// numberOfEntries = 1000;
for (Long64_t iEntry=0; iEntry<numberOfEntries; ++iEntry) {
Float_t weight = 1;
Float_t puweight = 1;
//float topptweight = 1;
analysisTree.GetEntry(iEntry);
nEvents++;
iCut = 0;
//std::cout << " number of entries in Tree = " << numberOfEntries <<" starting weight "<<weight<< std::endl;
if (nEvents%50000==0)
cout << " processed " << nEvents << " events" << endl;
if (fabs(analysisTree.primvertex_z)>zVertexCut) continue;
if (analysisTree.primvertex_ndof<ndofVertexCut) continue;
double dVertex = (analysisTree.primvertex_x*analysisTree.primvertex_x+
analysisTree.primvertex_y*analysisTree.primvertex_y);
if (dVertex>dVertexCut) continue;
if (analysisTree.primvertex_count<2) continue;
//isData= false;
bool lumi=false;
isLowIsoMu=false;
isHighIsoMu = false;
isLowIsoTau=false;
isHighIsoTau = false;
Float_t genweights;
float topPt = 0;
float antitopPt = 0;
bool isZTT = false;
if(!isData)
{
/* TTree *genweightsTree = (TTree*)file_->Get("initroottree/AC1B");
genweightsTree->SetBranchAddress("genweight",&genweights);
Long64_t numberOfEntriesInit = genweightsTree->GetEntries();
for (Long64_t iEntryInit=0; iEntryInit<numberOfEntriesInit; ++iEntryInit) {
genweightsTree->GetEntry(iEntryInit);
histWeightsH->Fill(0.,genweights);
}
*/ /*
for (unsigned int igent=0; igent < analysisTree.gentau_count; ++igent) {
if (analysisTree.gentau_isPrompt[igent]) isZTT = true;
}
*/
for (unsigned int igen=0; igen<analysisTree.genparticles_count; ++igen) {
// cout<< " info = " << int(analysisTree.genparticles_count) <<" "<<int(analysisTree.genparticles_pdgid[igen])<<endl;
if (analysisTree.genparticles_pdgid[igen]==6)
topPt = TMath::Sqrt(analysisTree.genparticles_px[igen]*analysisTree.genparticles_px[igen]+
analysisTree.genparticles_py[igen]*analysisTree.genparticles_py[igen]);
if (analysisTree.genparticles_pdgid[igen]==-6)
antitopPt = TMath::Sqrt(analysisTree.genparticles_px[igen]*analysisTree.genparticles_px[igen]+
analysisTree.genparticles_py[igen]*analysisTree.genparticles_py[igen]);
}
weight *= analysisTree.genweight;
lumi=true;
//cout<<" weight from init "<<genweights<< " "<<analysisTree.genweight<<" "<<weight<<endl;
/*
if (applyPUreweighting) {
int binNvert = vertexDataH->FindBin(analysisTree.primvertex_count);
float_t dataNvert = vertexDataH->GetBinContent(binNvert);
float_t mcNvert = vertexMcH->GetBinContent(binNvert);
if (mcNvert < 1e-10){mcNvert=1e-10;}
float_t vertWeight = dataNvert/mcNvert;
weight *= vertWeight;
// cout << "NVert = " << analysisTree.primvertex_count << " weight = " << vertWeight << endl;
}
*/
}
if (isData) {
XSec = 1.;
histRuns->Fill(analysisTree.event_run);
///////////////according to dimuons
int n=analysisTree.event_run;
int lum = analysisTree.event_luminosityblock;
std::string num = std::to_string(n);
std::string lnum = std::to_string(lum);
for(const auto& a : periods)
{
if ( num.c_str() == a.name ) {
//std::cout<< " Eureka "<<num<<" "<<a.name<<" ";
// std::cout <<"min "<< last->lower << "- max last " << last->bigger << std::endl;
for(auto b = a.ranges.begin(); b != std::prev(a.ranges.end()); ++b) {
// cout<<b->lower<<" "<<b->bigger<<endl;
if (lum >= b->lower && lum <= b->bigger ) lumi = true;
}
auto last = std::prev(a.ranges.end());
// std::cout <<"min "<< last->lower << "- max last " << last->bigger << std::endl;
if ( (lum >=last->lower && lum <= last->bigger )) lumi=true;
}
}
if (!lumi) continue;
//if (lumi ) cout<<" ============= Found good run"<<" "<<n<<" "<<lum<<endl;
}
if (analysisTree.event_run<RunMin)
RunMin = analysisTree.event_run;
if (analysisTree.event_run>RunMax)
RunMax = analysisTree.event_run;
//std::cout << " Run : " << analysisTree.event_run << std::endl;
bool isNewRun = true;
if (allRuns.size()>0) {
for (unsigned int iR=0; iR<allRuns.size(); ++iR) {
if (analysisTree.event_run==allRuns.at(iR)) {
isNewRun = false;
break;
}
}
}
if (isNewRun)
allRuns.push_back(analysisTree.event_run);
if (!lumi) continue;
JetsMV.clear();
ElMV.clear();
TauMV.clear();
MuMV.clear();
LeptMV.clear();
mu_index=-1;
tau_index=-1;
el_index=-1;
double MET = sqrt ( analysisTree.pfmet_ex*analysisTree.pfmet_ex + analysisTree.pfmet_ey*analysisTree.pfmet_ey);
METV.SetPx(analysisTree.pfmet_ex);
METV.SetPy(analysisTree.pfmet_ey);
METV.SetPz(analysisTree.pfmet_ez);
METV.SetPhi(analysisTree.pfmet_phi);
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
for (unsigned int ijj = 0; ijj<analysisTree.pfjet_count; ++ijj) {
JetsV.SetPxPyPzE(analysisTree.pfjet_px[ijj], analysisTree.pfjet_py[ijj], analysisTree.pfjet_pz[ijj], analysisTree.pfjet_e[ijj]);
JetsMV.push_back(JetsV);
}
for (unsigned int imm = 0; imm<analysisTree.muon_count; ++imm) {
MuV.SetPtEtaPhiM(analysisTree.muon_pt[imm], analysisTree.muon_eta[imm], analysisTree.muon_phi[imm], muonMass);
MuMV.push_back(MuV);
// mu_index=0;
}
for (unsigned int ie = 0; ie<analysisTree.electron_count; ++ie) {
ElV.SetPtEtaPhiM(analysisTree.electron_pt[ie], analysisTree.electron_eta[ie], analysisTree.electron_phi[ie], electronMass);
ElMV.push_back(ElV);
// el_index=0;
}
for (unsigned int itt = 0; itt<analysisTree.tau_count; ++itt) {
TauV.SetPtEtaPhiM(analysisTree.tau_pt[itt], analysisTree.tau_eta[itt], analysisTree.tau_phi[itt], tauMass);
TauMV.push_back(TauV);
// tau_index=0;
}
if (!isData )
{
if (applyPUreweighting) {
puweight = float(PUofficial->get_PUweight(double(analysisTree.numtruepileupinteractions)));
weight *=puweight;
}
}
// vector <string> ss; ss.push_back(.c_str());
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
//selecTable.Fill(1,0, weight );
bool trigAccept = false;
unsigned int nMainTrigger = 0;
bool isMainTrigger = false;
unsigned int nfilters = analysisTree.run_hltfilters->size();
// std::cout << "nfiltres = " << nfilters << std::endl;
for (unsigned int i=0; i<nfilters; ++i) {
// std::cout << "HLT Filter : " << i << " = " << analysisTree.run_hltfilters->at(i) << std::endl;
TString HLTFilter(analysisTree.run_hltfilters->at(i));
if (HLTFilter==MainTrigger) {
nMainTrigger = i;
isMainTrigger = true;
}
}
if (!isMainTrigger) {
std::cout << "HLT filter for Mu20 " << MainTrigger << " not found" << std::endl;
return(-1);
}
/////now clear the Mu.El.Jets again to fill them again after cleaning
MuMV.clear();
ElMV.clear();
TauMV.clear();
LeptMV.clear();
double isoMuMin = 9999;
bool mu_iso=false;
vector<int> muons; muons.clear();
for (unsigned int im = 0; im<analysisTree.muon_count; ++im) {
if (analysisTree.muon_pt[im]<ptMuonLowCut) continue;
if (fabs(analysisTree.muon_eta[im])>etaMuonCut) continue;
if (fabs(analysisTree.muon_dxy[im])>dxyMuonCut) continue;
if (fabs(analysisTree.muon_dz[im])>dzMuonCut) continue;
double absIso= analysisTree.muon_r03_sumChargedHadronPt[im]
+ max(analysisTree.muon_r03_sumNeutralHadronEt[im] + analysisTree.muon_r03_sumPhotonEt[im]
- 0.5 * analysisTree.muon_r03_sumPUPt[im],0.0);
double relIso = absIso/analysisTree.muon_pt[im];
if (relIso<isoMuonLowCut) continue;
if (applyMuonId && !analysisTree.muon_isMedium[im]) continue;
//cout<<" after muIso index "<<int(mu_index)<<" pT "<<analysisTree.muon_pt[im]<<" relIso "<<relIso<<" isoMuMin "<<isoMuMin<<" muon_count "<<analysisTree.muon_count<<" im "<<im<<" event "<<iEntry<<endl;
if (double(relIso)<double(isoMuMin)) {
isoMuMin = relIso;
mu_index = int(im);
mu_iso=true;
//cout<<" after muIso index "<<int(mu_index)<<" pT "<<analysisTree.muon_pt[im]<<" relIso "<<relIso<<" isoMuMin "<<isoMuMin<<" muon_count "<<analysisTree.muon_count<<" im "<<im<<" event "<<iEntry<<endl;
muons.push_back(im);
MuV.SetPtEtaPhiM(analysisTree.muon_pt[mu_index], analysisTree.muon_eta[mu_index], analysisTree.muon_phi[mu_index], muonMass);
MuMV.push_back(MuV);
LeptMV.push_back(MuV);
}
//cout<<" Indexes here "<<im<<" "<<mu_index<<endl;
if (relIso == isoMuMin && im != mu_index) {
//cout<<" found a pair for muons " <<relIso <<" mu_index "<<mu_index<<" pT "<<analysisTree.muon_pt[int(mu_index)]<<" new index "<<im<<" pT "<<analysisTree.muon_pt[int(im)]<<" event "<<iEntry<<endl;
analysisTree.muon_pt[im] > analysisTree.muon_pt[mu_index] ? mu_index = int(im) : mu_index = mu_index;
}
}
if (muons.size()==0 || !mu_iso ) continue;
double absIso= analysisTree.muon_r03_sumChargedHadronPt[mu_index]
+ max(analysisTree.muon_r03_sumNeutralHadronEt[mu_index] + analysisTree.muon_r03_sumPhotonEt[mu_index]
- 0.5 * analysisTree.muon_r03_sumPUPt[mu_index],0.0);
double relIso = absIso/analysisTree.muon_pt[mu_index];
if (relIso>isoMuonHighCut && !InvertLeptonIso) continue;
if (relIso>isoMuonHighCutQCD ) { isHighIsoMu=true ;isLowIsoMu=false;}
else { isHighIsoMu = false;isLowIsoMu=true;}
sort(LeptMV.begin(), LeptMV.end(),ComparePt);
if (LeptMV.size() == 0 ) continue;
if (InvertLeptonIso && !isHighIsoMu) continue;
if (!InvertLeptonIso && isHighIsoMu) continue;
if (InvertLeptonIso && isLowIsoMu) continue;
//cout<<" Iso check "<<relIso<<" InvertLeptonIso "<<InvertLeptonIso<<" isHighIsoMu "<<isHighIsoMu<<" isLowIsoMu "<<isLowIsoMu<<" cutQCD "<<isoMuonHighCutQCD<<endl;
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
double isoTauMin = 999;
bool tau_iso = false;
vector<int> tau; tau.clear();
for (unsigned int it = 0; it<analysisTree.tau_count; ++it) {
if (analysisTree.tau_pt[it] < ptTauLowCut || fabs(analysisTree.tau_eta[it])> etaTauCut) continue;
if (analysisTree.tau_decayModeFindingNewDMs[it]<decayModeFindingNewDMs) continue;
if ( fabs(analysisTree.tau_leadchargedhadrcand_dz[it])> leadchargedhadrcand_dz) continue;
if (analysisTree.tau_againstElectronVLooseMVA5[it]<againstElectronVLooseMVA5) continue;
if (analysisTree.tau_againstMuonTight3[it]<againstMuonTight3) continue;
//cout<<" "<<analysisTree.tau_byMediumCombinedIsolationDeltaBetaCorr3Hits[it]<<endl;
if (!InvertTauIso && analysisTree.tau_byCombinedIsolationDeltaBetaCorrRaw3Hits[it] > byCombinedIsolationDeltaBetaCorrRaw3Hits ) continue;
//if (!InvertTauIso && analysisTree.tau_byMediumCombinedIsolationDeltaBetaCorr3Hits[it] < 0.5 ) continue;
double tauIso = analysisTree.tau_byCombinedIsolationDeltaBetaCorrRaw3Hits[it];
if (tauIso<isoTauMin ) {
// cout<<" there was a chenge "<<tauIso<<" "<<isoTauMin<<" it "<<it<<" tau_index "<<tau_index<<" "<<analysisTree.tau_count<<endl;
isoTauMin = tauIso;
tau_iso=true;
tau_index = (int)it;
tau.push_back(tau_index);
TauV.SetPtEtaPhiM(analysisTree.tau_pt[tau_index], analysisTree.tau_eta[tau_index], analysisTree.tau_phi[tau_index], tauMass);
TauMV.push_back(TauV);
}
continue;
if (tauIso==isoTauMin && it != tau_index) {
//analysisTree.tau_pt[it] > analysisTree.tau_pt[tau_index] ? tau_index = it : tau_index = tau_index;
if (analysisTree.tau_pt[it] > analysisTree.tau_pt[tau_index] ) tau_index = (int)it ;
//cout<<" found a pair " <<tauIso <<" "<<tau_index<<" "<<it<<endl;
}
}
if (tau.size()==0 || !tau_iso ) continue;
// cout<< " Lets check "<<mu_index <<" "<<tau_index <<" "<<endl;
//cout<<" "<<endl;
////////////////////change to new tau inverted definition
double tauIsoI = analysisTree.tau_byMediumCombinedIsolationDeltaBetaCorr3Hits[tau_index];
if (tauIsoI > 0.5 && InvertTauIso) {isHighIsoTau =true;}
//else {isHighIsoTau =false ; isLowIsoTau=true;}
//if (isHighIsoTau && tauIso > 2*byCombinedIsolationDeltaBetaCorrRaw3Hits ) continue;
if (InvertTauIso && !isHighIsoTau) continue;
if (!InvertTauIso && isHighIsoTau) continue;
//if (InvertTauIso && isLowIsoTau) continue;
/*
continue;
double isoTauMin = 999;
bool tau_iso = false;
vector<int> tau; tau.clear();
for (unsigned int it = 0; it<analysisTree.tau_count; ++it) {
if (analysisTree.tau_pt[it] < ptTauLowCut || fabs(analysisTree.tau_eta[it])> etaTauCut) continue;
if (analysisTree.tau_decayModeFindingNewDMs[it]<decayModeFindingNewDMs) continue;
if ( fabs(analysisTree.tau_leadchargedhadrcand_dz[it])> leadchargedhadrcand_dz) continue;
if (analysisTree.tau_againstElectronVLooseMVA5[it]<againstElectronVLooseMVA5) continue;
if (analysisTree.tau_againstMuonTight3[it]<againstMuonTight3) continue;
//if (!InvertTauIso && analysisTree.tau_byCombinedIsolationDeltaBetaCorrRaw3Hits[it] > byCombinedIsolationDeltaBetaCorrRaw3Hits ) continue;
cout<<" "<<analysisTree.tau_byMediumCombinedIsolationDeltaBetaCorr3Hits[it]<<endl;
//aif (!InvertTauIso && analysisTree.tau_byMediumCombinedIsolationDeltaBetaCorr3Hits[it] < 0.5 ) continue;
double tauIso = analysisTree.tau_byCombinedIsolationDeltaBetaCorrRaw3Hits[it];
if (tauIso<isoTauMin ) {
// cout<<" there was a chenge "<<tauIso<<" "<<isoTauMin<<" it "<<it<<" tau_index "<<tau_index<<" "<<analysisTree.tau_count<<endl;
isoTauMin = tauIso;
tau_iso=true;
tau_index = int(it);
tau.push_back(tau_index);
TauV.SetPtEtaPhiM(analysisTree.tau_pt[tau_index], analysisTree.tau_eta[tau_index], analysisTree.tau_phi[tau_index], tauMass);
TauMV.push_back(TauV);
}
if (tauIso==isoTauMin && it != tau_index) {
analysisTree.tau_pt[it] > analysisTree.tau_pt[tau_index] ? tau_index = int(it) : tau_index = tau_index;
//cout<<" found a pair " <<tauIso <<" "<<tau_index<<" "<<it<<endl;
}
}
if (tau.size()==0 || !tau_iso ) continue;
double tauIsoI = analysisTree.tau_byMediumCombinedIsolationDeltaBetaCorr3Hits[tau_index];
if (tauIsoI > 0.5 && InvertTauIso) {isHighIsoTau =true;}
//else {isHighIsoTau =false ; isLowIsoTau=true;}
//if (isHighIsoTau && tauIso > 2*byCombinedIsolationDeltaBetaCorrRaw3Hits ) continue;
if (InvertTauIso && !isHighIsoTau) continue;
if (!InvertTauIso && isHighIsoTau) continue;
//if (InvertTauIso && isLowIsoTau) continue;
*/
double q = analysisTree.tau_charge[tau_index] * analysisTree.muon_charge[mu_index];
if (q>0 && Sign=="OS" ) continue;
if (q<0 && Sign=="SS" ) continue;
bool regionB = (q<0 && isLowIsoMu);
bool regionA = (q>0 && isLowIsoMu);
bool regionC = (q<0 && isHighIsoMu);
bool regionD = (q>0 && isHighIsoMu);
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
//cout<<" HOW MANY MUONS DO I HAVE ?? "<<muons.size()<<endl;
bool isdRLeptonMatched = false;
for (unsigned int iT=0; iT<analysisTree.trigobject_count; ++iT) {
if (analysisTree.trigobject_filters[iT][nMainTrigger]) { // Mu17 Leg
double dRtrig = deltaR(analysisTree.muon_eta[mu_index],analysisTree.muon_phi[mu_index],
analysisTree.trigobject_eta[iT],analysisTree.trigobject_phi[iT]);
if (!isData && analysisTree.trigobject_filters[iT][nMainTrigger] && analysisTree.trigobject_pt[iT]>singleMuonTriggerPtCut && dRtrig<deltaRTrigMatch)
isdRLeptonMatched = true;
if (isData && dRtrig<deltaRTrigMatch) isdRLeptonMatched=true;
}
}
if (!isdRLeptonMatched) continue;
double dR = deltaR(analysisTree.tau_eta[tau_index],analysisTree.tau_phi[tau_index],
analysisTree.muon_eta[mu_index],analysisTree.muon_phi[mu_index]);
if (dR<dRleptonsCutmutau) continue;
double ptMu1 = (double)analysisTree.muon_pt[mu_index];
double etaMu1 = (double)analysisTree.muon_eta[mu_index];
float trigweight=1.;
float Mu17EffData = (float)SF_muonTrigger->get_EfficiencyData(double(ptMu1),double(etaMu1));
float Mu17EffMC = (float)SF_muonTrigger->get_EfficiencyMC(double(ptMu1),double(etaMu1));
if (!isData) {
if (Mu17EffMC>1e-6)
trigweight = Mu17EffData / Mu17EffMC;
weight *= trigweight;
// cout<<" Trigger weight "<<trigweight<<endl;
}
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
//Set this flag if there is an opposite-charge muon pair in the event with muons separated by DR>0.15 and both passing the loose selection:
bool MuVeto=false;
if (doMuVeto){
if (muons.size()>1){
for (unsigned int imv = 0; imv<analysisTree.muon_count; ++imv) {
if ( imv != mu_index ){
double absIso= analysisTree.muon_r03_sumChargedHadronPt[imv]
+ max(analysisTree.muon_r03_sumNeutralHadronEt[imv] + analysisTree.muon_r03_sumPhotonEt[imv]
- 0.5 * analysisTree.muon_r03_sumPUPt[imv],0.0);
double relIso = absIso/analysisTree.muon_pt[imv];
double dRr = deltaR(analysisTree.muon_eta[mu_index],analysisTree.muon_phi[mu_index],
analysisTree.muon_eta[imv],analysisTree.muon_phi[imv]);
bool OSCharge = false;
if ( imv != mu_index && analysisTree.muon_charge[imv] != analysisTree.muon_charge[mu_index] ) OSCharge=true;
//if ( analysisTree.muon_charge[imv] != analysisTree.muon_charge[mu_index] && analysisTree.muon_isGlobal[imv] && analysisTree.muon_isTracker[imv] && analysisTree.muon_isPF[imv]
if ( analysisTree.muon_charge[imv] != analysisTree.muon_charge[mu_index] && analysisTree.muon_isGlobal[imv] && analysisTree.muon_isTracker[imv] && analysisTree.muon_isPF[imv]
&& analysisTree.muon_pt[imv]> 15 && fabs(analysisTree.muon_eta[imv])< 2.4 && fabs(analysisTree.muon_dxy[imv])<0.045
&& fabs(analysisTree.muon_dz[imv] < 0.2 && relIso< 0.3 && analysisTree.muon_isMedium[imv]) && dRr > 0.15 && OSCharge) //removed from last recipe
MuVeto=true;
}
}
}
}
if (MuVeto) continue;
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
bool ThirdLeptVeto=false;
if (doThirdLeptVeto){
if (analysisTree.electron_count>0) {
for (unsigned int iev = 0; iev<analysisTree.electron_count; ++iev) {
/*
double neutralIsoV = analysisTree.electron_r03_sumNeutralHadronEt[iev] + analysisTree.electron_r03_sumNeutralHadronEt[iev] + analysisTree.electron_r03_sumPhotonEt[iev] - 4*TMath::Pi()*(0.3*0.3)*analysisTree.rho;
double IsoWithEA = analysisTree.electron_r03_sumChargedHadronPt[iev] + TMath::Max(double(0), neutralIsoV);
*/
double IsoWithEA = analysisTree.electron_r03_sumChargedHadronPt[iev]
+ max(analysisTree.electron_r03_sumNeutralHadronEt[iev] + analysisTree.electron_r03_sumPhotonEt[iev]
- 0.5 * analysisTree.electron_r03_sumPUPt[iev], 0.0) ;
double relIsoV = IsoWithEA/analysisTree.electron_pt[iev];
bool electronMvaId = electronMvaIdWP90(analysisTree.electron_pt[iev], analysisTree.electron_superclusterEta[iev], analysisTree.electron_mva_id_nontrigPhys14[iev]);
if ( iev != el_index && analysisTree.electron_pt[iev] > 10 && fabs(analysisTree.electron_eta[iev]) < 2.5 && fabs(analysisTree.electron_dxy[iev])<0.045
&& fabs(analysisTree.electron_dz[iev]) < 0.2 && relIsoV< 0.3 && electronMvaId && analysisTree.electron_pass_conversion[iev]
&& analysisTree.electron_nmissinginnerhits[iev] <=1) ThirdLeptVeto=true;
}
}
if (analysisTree.muon_count>0){
for (unsigned int imvv = 0; imvv<analysisTree.muon_count; ++imvv) {
// if ( imvv != mu_index && analysisTree.muon_charge[imvv] != analysisTree.muon_charge[mu_index] ){
double absIso= analysisTree.muon_r03_sumChargedHadronPt[imvv]
+ max(analysisTree.muon_r03_sumNeutralHadronEt[imvv] + analysisTree.muon_r03_sumPhotonEt[imvv]
- 0.5 * analysisTree.muon_r03_sumPUPt[imvv],0.0);
double relIso = absIso/analysisTree.muon_pt[imvv];
if ( imvv != mu_index && analysisTree.muon_isMedium[imvv] && analysisTree.muon_pt[imvv]> 10 && fabs(analysisTree.muon_eta[imvv])< 2.4 && fabs(analysisTree.muon_dxy[imvv])<0.045
&& fabs(analysisTree.muon_dz[imvv] < 0.2 && relIso< 0.3 && analysisTree.muon_isMedium[imvv]) ) ThirdLeptVeto=true;
}
}
}
if (ThirdLeptVeto) continue;
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
if (!isData && applyLeptonSF) {
//leptonSFweight = SF_yourScaleFactor->get_ScaleFactor(pt, eta)
double ptMu1 = (double)analysisTree.muon_pt[mu_index];
double etaMu1 = (double)analysisTree.muon_eta[mu_index];
double IdIsoSF_mu1 = SF_muonIdIso->get_ScaleFactor(ptMu1, etaMu1);
MuSF_IdIso_Mu1H->Fill(IdIsoSF_mu1);
weight = weight*IdIsoSF_mu1;
}
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
TLorentzVector muVc ; muVc.SetPtEtaPhiM(analysisTree.muon_pt[mu_index], analysisTree.muon_eta[mu_index], analysisTree.muon_phi[mu_index], muonMass);
TLorentzVector tauVc; tauVc.SetPtEtaPhiM(analysisTree.tau_pt[tau_index], analysisTree.tau_eta[tau_index], analysisTree.tau_phi[tau_index], tauMass);
double MTv = mT(muVc,METV);
if (!isData && applyTFR) {
//leptonSFweight = SF_yourScaleFactor->get_ScaleFactor(pt, eta)
double ptTau1 = (double)analysisTree.tau_pt[tau_index];
double etaTau1 = (double)analysisTree.tau_eta[tau_index];
double TFRSF_mu1 = SF_TFR->get_ScaleFactor(ptTau1, etaTau1);
MuSF_IdIso_Mu1H->Fill(TFRSF_mu1);
weight = weight*TFRSF_mu1;
//cout<<" "<<TFRSF_mu1<<" for eta "<<etaTau1<< " pT "<< ptTau1<<endl;
}
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
if (!isData && ( string::npos != filen.find("TTJets") || string::npos != filen.find("TTPowHeg")) )
//if (!isData )
{
if (topPt>0.&&antitopPt>0.) {
float topptweight = topPtWeight(topPt,antitopPt);
// cout<<" "<<topPt<<" "<<antitopPt<<endl;
weight *= topptweight;
}
}
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
if (MTv<60 ) continue;
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
// for (unsigned int j=0;j<LeptMV.size();++j) cout<<" j "<<j<<" "<<LeptMV.at(j).Pt()<<endl;
// cout<<""<<endl;
////////jets cleaning
vector<int> jets; jets.clear();
TLorentzVector leptonsV, muonJ, jetsLV;
// continue;
//JetsV.SetPxPyPzE(analysisTree.pfjet_px[ij], analysisTree.pfjet_py[ij], analysisTree.pfjet_pz[ij], analysisTree.pfjet_e[ij]);
//double ETmiss = TMath::Sqrt(analysisTree.pfmet_ex*analysisTree.pfmet_ex + analysisTree.pfmet_ey*analysisTree.pfmet_ey);
double ETmiss = METV.Pt();//TMath::Sqrt(analysisTree.pfmet_ex*analysisTree.pfmet_ex + analysisTree.pfmet_ey*analysisTree.pfmet_ey);
if (InvertMET && ETmiss > 100. ) continue;
if (!InvertMET && ETmiss < 100. ) continue; //that is the nominal selection ie MET > 100
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
double ptScalarSum = -1;
bool btagged= false;
JetsMV.clear();
float jetEtaCut = 2.4;
float DRmax = 0.5;
int countjets = 0;
for (unsigned int jet=0; jet<analysisTree.pfjet_count; ++jet) {
float absJetEta = fabs(analysisTree.pfjet_eta[jet]);
if (absJetEta > etaJetCut) continue;
if (fabs(analysisTree.pfjet_pt[jet])<ptJetCut) continue;
//double Dr= deltaR(LeptMV.at(il).Eta(), LeptMV.at(il).Phi(),
bool isPFJetId = false ;
isPFJetId =looseJetiD(analysisTree,jet);
if (!isPFJetId) continue;
//for (unsigned int lep=0;LeptMV.size();lep++){
//double Dr=(LeptMV.at(lep).Eta(),LeptMV.at(lep).Phi(),
double Dr=deltaR(analysisTree.muon_eta[mu_index],analysisTree.muon_phi[mu_index],
analysisTree.pfjet_eta[jet],analysisTree.pfjet_phi[jet]);
if ( Dr < DRmax) continue;
double Drr=deltaR(analysisTree.tau_eta[tau_index],analysisTree.tau_phi[tau_index],
analysisTree.pfjet_eta[jet],analysisTree.pfjet_phi[jet]);
if ( Drr < DRmax) continue;
if (analysisTree.pfjet_btag[jet][0] > bTag) btagged = true;
JetsV.SetPxPyPzE(analysisTree.pfjet_px[jet], analysisTree.pfjet_py[jet], analysisTree.pfjet_pz[jet], analysisTree.pfjet_e[jet]);
JetsMV.push_back(JetsV);
countjets++;
}
if (countjets >2 ) continue;
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
if (btagged ) continue;
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
// pt Scalar
//cout<<" "<<mu_index<<" "<<tau_index<<" "<<MuMV.at(mu_index).M()<<" "<<TauMV.at(tau_index).M()<<endl;
TLorentzVector diL = muVc + tauVc;
if ( diL.M() < 100 ) continue;
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
/* if (ETmiss < 100) continue;
if (ETmiss < 120) continue;
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
// topological cut
//if (DZeta<dZetaCut) continue;
*/
//double dRr = deltaR(diL.Eta(), diL.Phi(), METV.Eta(), METV.Phi());
double dRr = deltaR(muVc.Eta(), muVc.Phi(), tauVc.Eta(), tauVc.Phi());
if (dRr>3 ) continue;
if(fillplots)
FillMainHists(iCut, weight, ElMV, MuMV, TauMV,JetsMV,METV, ChiMass,mIntermediate,analysisTree, Channel, mu_index,el_index,tau_index);
CFCounter[iCut]+= weight;
iCFCounter[iCut]++;
iCut++;
FillTree();
selEvents++;
} // end of file processing (loop over events in one file)
nFiles++;
delete _tree;
file_->Close();
delete file_;
}
cout<<"done"<<endl;
cout<<" Total events "<<nEvents<<" Will use weight "<<histWeightsH->GetSumOfWeights()<<" Norm Factor for a Lumi of "<<Lumi<<"/pb is "<<XSec*Lumi/( histWeightsH->GetSumOfWeights())<<endl;
cout<<" First content "<<CFCounter[0]<<endl;
cout<<" Run range from -----> "<<RunMin<<" to "<<RunMax<<endl;
/*
for (int i=0;i<CutNumb;++i){
CFCounter[i] *= double(XSec*Lumi/( histWeights->GetSumOfWeights()));
if (iCFCounter[i] <0.2) statUnc[i] =0;
else statUnc[i] = CFCounter[i]/sqrt(iCFCounter[i]);
}
*/
//write out cutflow
ofstream tfile;
// TString outname = argv[argc-1];
TString outname=argv[2];
TString textfilename = "cutflow_"+outname+"_"+Channel+"_"+argv[3]+".txt";
// tfile.open(textfilename);
// tfile << "########################################" << endl;
for(int ci = 0; ci < CutNumb; ci++)
{
// tfile << CutList[ci]<<"\t & \t"
// << CFCounter[ci] <<"\t & \t"<< statUnc[ci] <<"\t & \t"<< iCFCounter[ci] << endl;
CutFlowUnW->SetBinContent(1+ci,0);
CutFlow->SetBinContent(1+ci,0);
CutFlowUnW->SetBinContent(1+ci,float(CFCounter[ci]) );
CFCounter[ci] *= double(XSec*Lumi/( histWeightsH->GetSumOfWeights()));
CutFlow->SetBinContent(1+ci,float(CFCounter[ci]));
cout << " i "<<ci<<" "<<iCFCounter[ci]<<" "<<XSec*Lumi/( histWeightsH->GetSumOfWeights())<<" "<<CutFlowUnW->GetBinContent(1+ci)<<" "<<CutFlow->GetBinContent(1+ci)<<endl;
if (iCFCounter[ci] <0.2) statUnc[ci] =0;
//else statUnc[i] = CFCounter[i]/sqrt(iCFCounter[i]);
else statUnc[ci] = sqrt(CFCounter[ci]);
}
//ofstream tfile1;
//TString textfile_Con = "CMG_cutflow_Con_Mu_"+outname+".txt";
//tfile1.open(textfile_Con);
//tfile1 << "########################################" << endl;
//tfile << "Cut efficiency numbers:" << endl;
// tfile << " Cut "<<"\t & \t"<<"#Evnts for "<<Lumi/1000<<" fb-1 & \t"<<" Uncertainty \t"<<" cnt\t"<<endl;
// tfile.close();
std::cout << std::endl;
int allEvents = int(inputEventsH->GetEntries());
std::cout << "Total number of input events = " << allEvents << std::endl;
std::cout << "Total number of events in Tree = " << nEvents << std::endl;
std::cout << "Total number of selected events = " << selEvents << std::endl;
std::cout << std::endl;
file->cd(Channel.c_str());
WriteTree();
hxsec->Fill(XSec);
hxsec->Write();
inputEventsH->Write();
histWeightsH->Write();
histRuns->Write();
CutFlowUnW->Write();
CutFlow->Write();
MuSF_IdIso_Mu1H->Write();
file->Write();
file->Close();
delete file;
}
void americanSwaption(
boost::shared_ptr<LiborForwardModel> & lfm,
boost::shared_ptr<IborIndex> & libor,
utilities::csvBuilder & file) {
Date pricingDate = // pricing date
Settings::instance().evaluationDate();
Date optionStart = libor->fixingCalendar().advance( // start in 2 days
pricingDate,
Period(2, Days));
Date optionEnd(16, July, 2016);
Date fwdMaturity(16, July, 2021);
//Date optionEnd = libor->fixingCalendar().advance( // start in 2 days
// optionStart,
// Period(6, Months));
//Date fwdMaturity = optionStart + Period(3, Years); // underlying 3 years
Schedule schedule(
optionStart,
fwdMaturity,
libor->tenor(),
libor->fixingCalendar(),
ModifiedFollowing,
ModifiedFollowing,
DateGeneration::Backward,
false);
Rate swapRate = 0.0404; // dummy swap rate
boost::shared_ptr<VanillaSwap> forwardSwap(
new VanillaSwap(VanillaSwap::Receiver, 100.0,
schedule, swapRate, ActualActual(),
schedule, libor, 0.0, libor->dayCounter()));
forwardSwap->setPricingEngine(boost::shared_ptr<PricingEngine>(
new DiscountingSwapEngine(libor->forwardingTermStructure())));
swapRate = forwardSwap->fairRate(); // obtain the fair rate
forwardSwap = boost::shared_ptr<VanillaSwap>( // rebuild the "right" swap
new VanillaSwap(VanillaSwap::Receiver, 100.0,
schedule, swapRate, ActualActual(),
schedule, libor, 0.0, libor->dayCounter()));
forwardSwap->setPricingEngine(boost::shared_ptr<PricingEngine>(
new DiscountingSwapEngine(libor->forwardingTermStructure())));
boost::shared_ptr<PricingEngine> engine(
new LfmSwaptionEngine(lfm,
libor->forwardingTermStructure()));
boost::shared_ptr<Exercise> exercise(
new AmericanExercise(optionEnd));
boost::shared_ptr<Swaption> americanSwaption( // create the swaption
new Swaption(forwardSwap, exercise));
americanSwaption->setPricingEngine(engine);
Real npv = americanSwaption->NPV();
std::cout << "American swaption npv: " // information
<< npv
<< std::endl;
}
void IntegralCdsEngine::calculate() const {
QL_REQUIRE(integrationStep_ != Period(),
"null period set");
QL_REQUIRE(!discountCurve_.empty(),
"no discount term structure set");
QL_REQUIRE(!probability_.empty(),
"no probability term structure set");
Date today = Settings::instance().evaluationDate();
Date settlementDate = discountCurve_->referenceDate();
// Upfront Flow NPV. Either we are on-the-run (no flow)
// or we are forward start
Real upfPVO1 = 0.0;
if(!arguments_.upfrontPayment->hasOccurred(
settlementDate,
includeSettlementDateFlows_)) {
// date determining the probability survival so we have to pay
// the upfront (did not knock out)
Date effectiveUpfrontDate =
arguments_.protectionStart > probability_->referenceDate() ?
arguments_.protectionStart : probability_->referenceDate();
upfPVO1 =
probability_->survivalProbability(effectiveUpfrontDate) *
discountCurve_->discount(arguments_.upfrontPayment->date());
}
results_.upfrontNPV = upfPVO1 * arguments_.upfrontPayment->amount();
results_.couponLegNPV = 0.0;
results_.defaultLegNPV = 0.0;
for (Size i=0; i<arguments_.leg.size(); ++i) {
if (arguments_.leg[i]->hasOccurred(settlementDate,
includeSettlementDateFlows_))
continue;
boost::shared_ptr<FixedRateCoupon> coupon =
boost::dynamic_pointer_cast<FixedRateCoupon>(arguments_.leg[i]);
// In order to avoid a few switches, we calculate the NPV
// of both legs as a positive quantity. We'll give them
// the right sign at the end.
Date paymentDate = coupon->date(),
startDate = (i == 0 ? arguments_.protectionStart :
coupon->accrualStartDate()),
endDate = coupon->accrualEndDate();
Date effectiveStartDate =
(startDate <= today && today <= endDate) ? today : startDate;
Real couponAmount = coupon->amount();
Probability S = probability_->survivalProbability(paymentDate);
// On one side, we add the fixed rate payments in case of
// survival.
results_.couponLegNPV +=
S * couponAmount * discountCurve_->discount(paymentDate);
// On the other side, we add the payment (and possibly the
// accrual) in case of default.
Period step = integrationStep_;
Date d0 = effectiveStartDate;
Date d1 = std::min(d0 + step, endDate);
Probability P0 = probability_->defaultProbability(d0);
DiscountFactor endDiscount = discountCurve_->discount(paymentDate);
do {
DiscountFactor B =
arguments_.paysAtDefaultTime ?
discountCurve_->discount(d1) :
endDiscount;
Probability P1 = probability_->defaultProbability(d1);
Probability dP = P1 - P0;
// accrual...
if (arguments_.settlesAccrual) {
if (arguments_.paysAtDefaultTime)
results_.couponLegNPV +=
coupon->accruedAmount(d1) * B * dP;
else
results_.couponLegNPV +=
couponAmount * B * dP;
}
// ...and claim.
Real claim = arguments_.claim->amount(d1,
arguments_.notional,
recoveryRate_);
results_.defaultLegNPV += claim * B * dP;
// setup for next time around the loop
P0 = P1;
d0 = d1;
d1 = std::min(d0 + step, endDate);
} while (d0 < endDate);
}
Real upfrontSign = 1.0;
switch (arguments_.side) {
case Protection::Seller:
results_.defaultLegNPV *= -1.0;
break;
case Protection::Buyer:
results_.couponLegNPV *= -1.0;
results_.upfrontNPV *= -1.0;
upfrontSign = -1.0;
break;
default:
QL_FAIL("unknown protection side");
}
results_.value =
results_.defaultLegNPV+results_.couponLegNPV+results_.upfrontNPV;
results_.errorEstimate = Null<Real>();
if (results_.couponLegNPV != 0.0) {
results_.fairSpread =
-results_.defaultLegNPV*arguments_.spread/results_.couponLegNPV;
} else {
results_.fairSpread = Null<Rate>();
}
Real upfrontSensitivity = upfPVO1 * arguments_.notional;
if (upfrontSensitivity != 0.0) {
results_.fairUpfront =
-upfrontSign*(results_.defaultLegNPV + results_.couponLegNPV)
/ upfrontSensitivity;
} else {
results_.fairUpfront = Null<Rate>();
}
static const Rate basisPoint = 1.0e-4;
if (arguments_.spread != 0.0) {
results_.couponLegBPS =
results_.couponLegNPV*basisPoint/arguments_.spread;
} else {
results_.couponLegBPS = Null<Rate>();
}
if (arguments_.upfront && *arguments_.upfront != 0.0) {
results_.upfrontBPS =
results_.upfrontNPV*basisPoint/(*arguments_.upfront);
} else {
results_.upfrontBPS = Null<Rate>();
}
}
virtual Date maxDate() const {
//FIXME approx
return optionDateFromTenor(
Period((int)ceil(interpolation_.xMax()),Years));
}
MakeOIS::operator boost::shared_ptr<OvernightIndexedSwap>() const {
const Calendar& calendar = overnightIndex_->fixingCalendar();
Date startDate;
if (effectiveDate_ != Date())
startDate = effectiveDate_;
else {
Date referenceDate = Settings::instance().evaluationDate();
Date spotDate = calendar.advance(referenceDate,
fixingDays_*Days);
startDate = spotDate+forwardStart_;
}
Date endDate;
if (terminationDate_ != Date()) {
endDate = terminationDate_;
} else {
if (endOfMonth_) {
endDate = calendar.advance(startDate, swapTenor_,
ModifiedFollowing,
endOfMonth_);
} else {
endDate = startDate+swapTenor_;
}
}
Schedule schedule(startDate, endDate,
Period(paymentFrequency_),
calendar,
ModifiedFollowing,
ModifiedFollowing,
rule_,
endOfMonth_);
Rate usedFixedRate = fixedRate_;
if (fixedRate_ == Null<Rate>()) {
QL_REQUIRE(!overnightIndex_->forwardingTermStructure().empty(),
"null term structure set to this instance of " <<
overnightIndex_->name());
OvernightIndexedSwap temp(type_, nominal_,
schedule,
0.0, // fixed rate
fixedDayCount_,
overnightIndex_, overnightSpread_);
// ATM on the forecasting curve
bool includeSettlementDateFlows = false;
temp.setPricingEngine(boost::shared_ptr<PricingEngine>(
new DiscountingSwapEngine(
overnightIndex_->forwardingTermStructure(),
includeSettlementDateFlows)));
usedFixedRate = temp.fairRate();
}
boost::shared_ptr<OvernightIndexedSwap> ois(new
OvernightIndexedSwap(type_, nominal_,
schedule,
usedFixedRate, fixedDayCount_,
overnightIndex_, overnightSpread_));
ois->setPricingEngine(engine_);
return ois;
}
FixedRateLeg::operator Leg() const {
QL_REQUIRE(!couponRates_.empty(), "no coupon rates given");
QL_REQUIRE(!notionals_.empty(), "no notional given");
Leg leg;
leg.reserve(schedule_.size()-1);
// first period might be short or long
Date start = schedule_.date(0), end = schedule_.date(1);
Date paymentDate = paymentCalendar_.advance(end, paymentLag_, Days, paymentAdjustment_);
Date exCouponDate;
InterestRate rate = couponRates_[0];
Real nominal = notionals_[0];
if (exCouponPeriod_ != Period())
{
exCouponDate = exCouponCalendar_.advance(paymentDate,
-exCouponPeriod_,
exCouponAdjustment_,
exCouponEndOfMonth_);
}
Date ref = schedule_.hasTenor() &&
schedule_.hasIsRegular() && !schedule_.isRegular(1) ?
schedule_.calendar().advance(end,
-schedule_.tenor(),
schedule_.businessDayConvention(),
schedule_.endOfMonth())
: start;
InterestRate r(rate.rate(),
firstPeriodDC_.empty() ? rate.dayCounter()
: firstPeriodDC_,
rate.compounding(), rate.frequency());
leg.push_back(ext::shared_ptr<CashFlow>(new
FixedRateCoupon(paymentDate, nominal, r,
start, end, ref, end, exCouponDate)));
// regular periods
for (Size i=2; i<schedule_.size()-1; ++i) {
start = end; end = schedule_.date(i);
Date paymentDate = paymentCalendar_.advance(end, paymentLag_, Days, paymentAdjustment_);
if (exCouponPeriod_ != Period())
{
exCouponDate = exCouponCalendar_.advance(paymentDate,
-exCouponPeriod_,
exCouponAdjustment_,
exCouponEndOfMonth_);
}
if ((i-1) < couponRates_.size())
rate = couponRates_[i-1];
else
rate = couponRates_.back();
if ((i-1) < notionals_.size())
nominal = notionals_[i-1];
else
nominal = notionals_.back();
leg.push_back(ext::shared_ptr<CashFlow>(new
FixedRateCoupon(paymentDate, nominal, rate,
start, end, start, end, exCouponDate)));
}
if (schedule_.size() > 2) {
// last period might be short or long
Size N = schedule_.size();
start = end; end = schedule_.date(N-1);
Date paymentDate = paymentCalendar_.advance(end, paymentLag_, Days, paymentAdjustment_);
if (exCouponPeriod_ != Period())
{
exCouponDate = exCouponCalendar_.advance(paymentDate,
-exCouponPeriod_,
exCouponAdjustment_,
exCouponEndOfMonth_);
}
if ((N-2) < couponRates_.size())
rate = couponRates_[N-2];
else
rate = couponRates_.back();
if ((N-2) < notionals_.size())
nominal = notionals_[N-2];
else
nominal = notionals_.back();
InterestRate r( rate.rate(), lastPeriodDC_.empty() ?
rate.dayCounter() :
lastPeriodDC_ , rate.compounding(), rate.frequency() );
if ((schedule_.hasIsRegular() && schedule_.isRegular(N - 1)) ||
!schedule_.hasTenor()) {
leg.push_back(ext::shared_ptr<CashFlow>(new
FixedRateCoupon(paymentDate, nominal, r,
start, end, start, end, exCouponDate)));
} else {
Date ref = schedule_.calendar().advance(
start,
schedule_.tenor(),
schedule_.businessDayConvention(),
schedule_.endOfMonth());
leg.push_back(ext::shared_ptr<CashFlow>(new
FixedRateCoupon(paymentDate, nominal, r,
start, end, start, ref, exCouponDate)));
}
}
return leg;
}
KRWiborFX6M(const Handle<YieldTermStructure>& h =
Handle<YieldTermStructure>())
: KRWiborFX(Period(6, Months), h) {}
MakeSchedule& MakeSchedule::withFrequency(Frequency frequency) {
tenor_ = Period(frequency);
return *this;
}
Euribor10M(const Handle<YieldTermStructure>& h =
Handle<YieldTermStructure>())
: Euribor(Period(10, Months), h) {}
void RandomLossLM<C, URNG>::nextSample(
const std::vector<Real>& values) const
{
const ext::shared_ptr<Pool>& pool = this->basket_->pool();
this->simsBuffer_.push_back(std::vector<defaultSimEvent> ());
// half the model is defaults, the other half are RRs...
for(Size iName=0; iName<copula_->size()/2; iName++) {
// ...but samples must be full
/* This is really a trick, we are passing a longer than
expected set of values in the sample but the last idiosyncratic
values corresponding to the RR are not used. They are used below
only if we are in default. This works due to the way the SpotLossLM
is split in two almost disjoint latent models and that theres no
check on the vector size in the LM base class.
*/
Real latentVarSample =
copula_->latentVarValue(values, iName);
Probability simDefaultProb =
copula_->cumulativeY(latentVarSample, iName);
// If the default simulated lies before the max date:
if (horizonDefaultPs_[iName] >= simDefaultProb) {
const Handle<DefaultProbabilityTermStructure>& dfts =
pool->get(pool->names()[iName]). // use 'live' names
defaultProbability(this->basket_->defaultKeys()[iName]);
// compute and store default time with respect to the
// curve ref date:
Size dateSTride =
static_cast<Size>(Brent().solve(// casted from Real:
detail::Root(dfts, simDefaultProb), accuracy_, 0., 1.));
/*
// value if one approximates to a flat HR;
// faster (>x2) but it introduces an error:..
// \todo: see how to include this 'polymorphically'. While
// not the case in pricing in risk metrics/real
// probabilities the curves are often flat
static_cast<Size>(ceil(maxHorizon_ *
std::log(1.-simDefaultProb)
/std::log(1.-data_.horizonDefaultPs_[iName])));
*/
// Determine the realized recovery rate:
/* For this; 'conditionalRecovery' needs to compute the pdef on
the realized def event date from the simulation. Yet, this might
have fallen between todays date and the default TS reference
date(usually a two day gap) To avoid requesting a negative time
probability the date is moved to the TS date
Unless the gap is ridiculous this has no practical effect for
the RR value*/
Date today = Settings::instance().evaluationDate();
Date eventDate = today+Period(static_cast<Integer>(dateSTride),
Days);
if(eventDate<dfts->referenceDate())
eventDate = dfts->referenceDate();
Real latentRRVarSample =
copula_->latentRRVarValue(values, iName);
Real recovery =
copula_->conditionalRecovery(latentRRVarSample,
iName, eventDate);
this->simsBuffer_.back().push_back(
defaultSimEvent(iName, dateSTride, recovery));
//emplace_back
}
/* Used to remove sims with no events. Uses less memory, faster
post-statistics. But only if all names in the portfolio have low
default probability, otherwise is more expensive and sim access has
to be modified. However low probability is also an indicator that
variance reduction is needed. */
//if(simsBuffer.back().empty()) {
// emptySims_++;// Size; intilzd to zero
// simsBuffer.pop_back();
//}
}
}
Euribor365_2W(const Handle<YieldTermStructure>& h =
Handle<YieldTermStructure>())
: Euribor365(Period(2, Weeks), h) {}
Period periodFromFrequency(Frequency f) {
return Period(f);
}
Euribor365_11M(const Handle<YieldTermStructure>& h =
Handle<YieldTermStructure>())
: Euribor365(Period(11, Months), h) {}
MakeVanillaSwap::operator ext::shared_ptr<VanillaSwap>() const {
Date startDate;
if (effectiveDate_ != Date())
startDate = effectiveDate_;
else {
Date refDate = Settings::instance().evaluationDate();
// if the evaluation date is not a business day
// then move to the next business day
refDate = floatCalendar_.adjust(refDate);
Date spotDate = floatCalendar_.advance(refDate,
settlementDays_*Days);
startDate = spotDate+forwardStart_;
if (forwardStart_.length()<0)
startDate = floatCalendar_.adjust(startDate,
Preceding);
else
startDate = floatCalendar_.adjust(startDate,
Following);
}
Date endDate = terminationDate_;
if (endDate == Date()) {
if (floatEndOfMonth_)
endDate = floatCalendar_.advance(startDate,
swapTenor_,
ModifiedFollowing,
floatEndOfMonth_);
else
endDate = startDate + swapTenor_;
}
const Currency& curr = iborIndex_->currency();
Period fixedTenor;
if (fixedTenor_ != Period())
fixedTenor = fixedTenor_;
else {
if ((curr == EURCurrency()) ||
(curr == USDCurrency()) ||
(curr == CHFCurrency()) ||
(curr == SEKCurrency()) ||
(curr == GBPCurrency() && swapTenor_ <= 1 * Years))
fixedTenor = Period(1, Years);
else if ((curr == GBPCurrency() && swapTenor_ > 1 * Years) ||
(curr == JPYCurrency()) ||
(curr == AUDCurrency() && swapTenor_ >= 4 * Years))
fixedTenor = Period(6, Months);
else if ((curr == HKDCurrency() ||
(curr == AUDCurrency() && swapTenor_ < 4 * Years)))
fixedTenor = Period(3, Months);
else
QL_FAIL("unknown fixed leg default tenor for " << curr);
}
Schedule fixedSchedule(startDate, endDate,
fixedTenor, fixedCalendar_,
fixedConvention_,
fixedTerminationDateConvention_,
fixedRule_, fixedEndOfMonth_,
fixedFirstDate_, fixedNextToLastDate_);
Schedule floatSchedule(startDate, endDate,
floatTenor_, floatCalendar_,
floatConvention_,
floatTerminationDateConvention_,
floatRule_, floatEndOfMonth_,
floatFirstDate_, floatNextToLastDate_);
DayCounter fixedDayCount;
if (fixedDayCount_ != DayCounter())
fixedDayCount = fixedDayCount_;
else {
if (curr == USDCurrency())
fixedDayCount = Actual360();
else if (curr == EURCurrency() || curr == CHFCurrency() ||
curr == SEKCurrency())
fixedDayCount = Thirty360(Thirty360::BondBasis);
else if (curr == GBPCurrency() || curr == JPYCurrency() ||
curr == AUDCurrency() || curr == HKDCurrency())
fixedDayCount = Actual365Fixed();
else
QL_FAIL("unknown fixed leg day counter for " << curr);
}
Rate usedFixedRate = fixedRate_;
if (fixedRate_ == Null<Rate>()) {
VanillaSwap temp(type_, nominal_,
fixedSchedule,
0.0, // fixed rate
fixedDayCount,
floatSchedule, iborIndex_,
floatSpread_, floatDayCount_);
if (engine_ == 0) {
Handle<YieldTermStructure> disc =
iborIndex_->forwardingTermStructure();
QL_REQUIRE(!disc.empty(),
"null term structure set to this instance of " <<
iborIndex_->name());
bool includeSettlementDateFlows = false;
ext::shared_ptr<PricingEngine> engine(new
DiscountingSwapEngine(disc, includeSettlementDateFlows));
temp.setPricingEngine(engine);
} else
temp.setPricingEngine(engine_);
usedFixedRate = temp.fairRate();
}
ext::shared_ptr<VanillaSwap> swap(new
VanillaSwap(type_, nominal_,
fixedSchedule,
usedFixedRate, fixedDayCount,
floatSchedule,
iborIndex_, floatSpread_, floatDayCount_));
if (engine_ == 0) {
Handle<YieldTermStructure> disc =
iborIndex_->forwardingTermStructure();
bool includeSettlementDateFlows = false;
ext::shared_ptr<PricingEngine> engine(new
DiscountingSwapEngine(disc, includeSettlementDateFlows));
swap->setPricingEngine(engine);
} else
swap->setPricingEngine(engine_);
return swap;
}
Euribor365_1Y(const Handle<YieldTermStructure>& h =
Handle<YieldTermStructure>())
: Euribor365(Period(1, Years), h) {}
FloatingRateBond::FloatingRateBond(
Natural settlementDays,
Real faceAmount,
const Date& startDate,
const Date& maturityDate,
Frequency couponFrequency,
const Calendar& calendar,
const ext::shared_ptr<IborIndex>& iborIndex,
const DayCounter& accrualDayCounter,
BusinessDayConvention accrualConvention,
BusinessDayConvention paymentConvention,
Natural fixingDays,
const std::vector<Real>& gearings,
const std::vector<Spread>& spreads,
const std::vector<Rate>& caps,
const std::vector<Rate>& floors,
bool inArrears,
Real redemption,
const Date& issueDate,
const Date& stubDate,
DateGeneration::Rule rule,
bool endOfMonth)
: Bond(settlementDays, calendar, issueDate) {
maturityDate_ = maturityDate;
Date firstDate, nextToLastDate;
switch (rule) {
case DateGeneration::Backward:
firstDate = Date();
nextToLastDate = stubDate;
break;
case DateGeneration::Forward:
firstDate = stubDate;
nextToLastDate = Date();
break;
case DateGeneration::Zero:
case DateGeneration::ThirdWednesday:
case DateGeneration::Twentieth:
case DateGeneration::TwentiethIMM:
QL_FAIL("stub date (" << stubDate << ") not allowed with " <<
rule << " DateGeneration::Rule");
default:
QL_FAIL("unknown DateGeneration::Rule (" << Integer(rule) << ")");
}
Schedule schedule(startDate, maturityDate_, Period(couponFrequency),
calendar_, accrualConvention, accrualConvention,
rule, endOfMonth,
firstDate, nextToLastDate);
cashflows_ = IborLeg(schedule, iborIndex)
.withNotionals(faceAmount)
.withPaymentDayCounter(accrualDayCounter)
.withPaymentAdjustment(paymentConvention)
.withFixingDays(fixingDays)
.withGearings(gearings)
.withSpreads(spreads)
.withCaps(caps)
.withFloors(floors)
.inArrears(inArrears);
addRedemptionsToCashflows(std::vector<Real>(1, redemption));
QL_ENSURE(!cashflows().empty(), "bond with no cashflows!");
QL_ENSURE(redemptions_.size() == 1, "multiple redemptions created");
registerWith(iborIndex);
}
Euribor3W(const Handle<YieldTermStructure>& h =
Handle<YieldTermStructure>())
: Euribor(Period(3, Weeks), h) {}
MakeOIS::operator ext::shared_ptr<OvernightIndexedSwap>() const {
Date startDate;
if (effectiveDate_ != Date())
startDate = effectiveDate_;
else {
Date refDate = Settings::instance().evaluationDate();
// if the evaluation date is not a business day
// then move to the next business day
refDate = calendar_.adjust(refDate);
Date spotDate = calendar_.advance(refDate,
settlementDays_*Days);
startDate = spotDate+forwardStart_;
if (forwardStart_.length()<0)
startDate = calendar_.adjust(startDate, Preceding);
else
startDate = calendar_.adjust(startDate, Following);
}
// OIS end of month default
bool usedEndOfMonth =
isDefaultEOM_ ? calendar_.isEndOfMonth(startDate) : endOfMonth_;
Date endDate = terminationDate_;
if (endDate == Date()) {
if (usedEndOfMonth)
endDate = calendar_.advance(startDate,
swapTenor_,
ModifiedFollowing,
usedEndOfMonth);
else
endDate = startDate + swapTenor_;
}
Schedule schedule(startDate, endDate,
Period(paymentFrequency_),
calendar_,
ModifiedFollowing,
ModifiedFollowing,
rule_,
usedEndOfMonth);
Rate usedFixedRate = fixedRate_;
if (fixedRate_ == Null<Rate>()) {
OvernightIndexedSwap temp(type_, nominal_,
schedule,
0.0, // fixed rate
fixedDayCount_,
overnightIndex_, overnightSpread_,
paymentLag_, paymentAdjustment_,
paymentCalendar_, telescopicValueDates_);
if (engine_ == 0) {
Handle<YieldTermStructure> disc =
overnightIndex_->forwardingTermStructure();
QL_REQUIRE(!disc.empty(),
"null term structure set to this instance of " <<
overnightIndex_->name());
bool includeSettlementDateFlows = false;
ext::shared_ptr<PricingEngine> engine(new
DiscountingSwapEngine(disc, includeSettlementDateFlows));
temp.setPricingEngine(engine);
} else
temp.setPricingEngine(engine_);
usedFixedRate = temp.fairRate();
}
ext::shared_ptr<OvernightIndexedSwap> ois(new
OvernightIndexedSwap(type_, nominal_,
schedule,
usedFixedRate, fixedDayCount_,
overnightIndex_, overnightSpread_,
paymentLag_, paymentAdjustment_,
paymentCalendar_, telescopicValueDates_));
if (engine_ == 0) {
Handle<YieldTermStructure> disc =
overnightIndex_->forwardingTermStructure();
bool includeSettlementDateFlows = false;
ext::shared_ptr<PricingEngine> engine(new
DiscountingSwapEngine(disc, includeSettlementDateFlows));
ois->setPricingEngine(engine);
} else
ois->setPricingEngine(engine_);
return ois;
}
void test1Y10(boost::shared_ptr<IborIndex> libor,
utilities::csvBuilder & file) {
std::cout << "Testing calibration of a Libor forward model with 1Y10 settings..."
<< std::endl;
/* basic settings */
SavedSettings backup;
const Size size_ = 44; // 44 trimesters
const Real tolerance_ = 8e-3; // tolerance
boost::shared_ptr<IborIndex> libor = curveCreation();
std::vector<swaptionData> swaptions // swaption data
= std::vector<swaptionData> {
//{ 50.200, Period(1, Months), Period(1, Years) },
{ 54.475, Period(3, Months), Period(1, Years) },
{ 63.350, Period(6, Months), Period(1, Years) },
//{ 68.650, Period(1, Years), Period(1, Years) },
//{ 49.850, Period(2, Years), Period(1, Years) },
//{ 38.500, Period(3, Years), Period(1, Years) },
//{ 31.900, Period(4, Years), Period(1, Years) },
//{ 28.500, Period(5, Years), Period(1, Years) },
{ 26.500, Period(6, Years), Period(1, Years) },
{ 24.625, Period(7, Years), Period(1, Years) },
{ 23.500, Period(8, Years), Period(1, Years) },
{ 22.550, Period(9, Years), Period(1, Years) },
{ 21.150, Period(10, Years), Period(1, Years) },
//{ 60.950, Period(1, Months), Period(2, Years) },
{ 55.700, Period(3, Months), Period(2, Years) },
{ 58.100, Period(6, Months), Period(2, Years) },
{ 56.550, Period(1, Years), Period(2, Years) },
//{ 42.600, Period(2, Years), Period(2, Years) },
//{ 34.300, Period(3, Years), Period(2, Years) },
//{ 29.400, Period(4, Years), Period(2, Years) },
{ 26.900, Period(5, Years), Period(2, Years) },
{ 25.050, Period(6, Years), Period(2, Years) },
{ 23.800, Period(7, Years), Period(2, Years) },
{ 22.700, Period(8, Years), Period(2, Years) },
{ 21.600, Period(9, Years), Period(2, Years) },
{ 51.050, Period(1, Months), Period(3, Years) },
{ 48.300, Period(3, Months), Period(3, Years) },
{ 48.900, Period(6, Months), Period(3, Years) },
{ 47.000, Period(1, Years), Period(3, Years) },
//{ 37.000, Period(2, Years), Period(3, Years) },
//{ 31.275, Period(3, Years), Period(3, Years) },
{ 27.650, Period(4, Years), Period(3, Years) },
{ 25.650, Period(5, Years), Period(3, Years) },
{ 24.200, Period(6, Years), Period(3, Years) },
{ 23.050, Period(7, Years), Period(3, Years) },
{ 22.050, Period(8, Years), Period(3, Years) },
{ 40.800, Period(1, Months), Period(4, Years) },
{ 40.225, Period(3, Months), Period(4, Years) },
{ 40.200, Period(6, Months), Period(4, Years) },
{ 39.300, Period(1, Years), Period(4, Years) },
//{ 32.800, Period(2, Years), Period(4, Years) },
{ 28.925, Period(3, Years), Period(4, Years) },
{ 26.150, Period(4, Years), Period(4, Years) },
{ 24.650, Period(5, Years), Period(4, Years) },
{ 23.500, Period(6, Years), Period(4, Years) },
{ 22.350, Period(7, Years), Period(4, Years) },
{ 36.025, Period(1, Months), Period(5, Years) },
{ 35.600, Period(3, Months), Period(5, Years) },
{ 35.425, Period(6, Months), Period(5, Years) },
{ 34.250, Period(1, Years), Period(5, Years) },
{ 29.850, Period(2, Years), Period(5, Years) },
{ 26.900, Period(3, Years), Period(5, Years) },
{ 24.925, Period(4, Years), Period(5, Years) },
{ 23.700, Period(5, Years), Period(5, Years) },
{ 22.750, Period(6, Years), Period(5, Years) },
{ 30.800, Period(1, Months), Period(6, Years) },
{ 30.700, Period(3, Months), Period(6, Years) },
//{ 31.200, Period(6, Months), Period(6, Years) },
{ 30.750, Period(1, Years), Period(6, Years) },
{ 27.850, Period(2, Years), Period(6, Years) },
{ 25.775, Period(3, Years), Period(6, Years) },
{ 24.125, Period(4, Years), Period(6, Years) },
{ 23.100, Period(5, Years), Period(6, Years) },
{ 27.600, Period(1, Months), Period(7, Years) },
{ 27.750, Period(3, Months), Period(7, Years) },
{ 28.350, Period(6, Months), Period(7, Years) },
{ 28.200, Period(1, Years), Period(7, Years) },
{ 26.400, Period(2, Years), Period(7, Years) },
{ 24.750, Period(3, Years), Period(7, Years) },
{ 23.400, Period(4, Years), Period(7, Years) },
{ 25.250, Period(1, Months), Period(8, Years) },
{ 25.450, Period(3, Months), Period(8, Years) },
{ 26.000, Period(6, Months), Period(8, Years) },
{ 26.250, Period(1, Years), Period(8, Years) },
{ 25.225, Period(2, Years), Period(8, Years) },
{ 23.875, Period(3, Years), Period(8, Years) },
{ 23.575, Period(1, Months), Period(9, Years) },
{ 23.575, Period(3, Months), Period(9, Years) },
{ 24.600, Period(6, Months), Period(9, Years) },
{ 24.800, Period(1, Years), Period(9, Years) },
{ 24.150, Period(2, Years), Period(9, Years) },
{ 22.275, Period(1, Months), Period(10, Years) },
{ 22.125, Period(3, Months), Period(10, Years) },
{ 23.300, Period(6, Months), Period(10, Years) },
{ 23.600, Period(1, Years), Period(10, Years) }
};
Handle<YieldTermStructure> termStructure = libor->forwardingTermStructure();
// set up the process
boost::shared_ptr<LiborForwardModelProcess> process(
new LiborForwardModelProcess(size_, libor));
std::vector<Time> fixingT = process->fixingTimes();
// set-up the model
boost::shared_ptr<LmVolatilityModel> volaModel(
new LmExtLinearExponentialVolModel(process->fixingTimes(),
0.5, 0.6, 0.1, 0.1));
boost::shared_ptr<LmCorrelationModel> corrModel(
new LmLinearExponentialCorrelationModel(size_, 0.5, 0.8));
boost::shared_ptr<LiborForwardModel> model(
new LiborForwardModel(process, volaModel, corrModel));
Size swapVolIndex = 0;
DayCounter dayCounter = libor->forwardingTermStructure()->dayCounter();
// set-up calibration helper
std::vector<boost::shared_ptr<CalibrationHelper> > calibrationHelper;
Size i;
for (i = 0; i < swaptions.size(); i++) {
Handle<Quote> swaptionVol(
boost::shared_ptr<Quote>(
new SimpleQuote(swaptions[i].volatility_ / 100)));
boost::shared_ptr<CalibrationHelper> swaptionHelper(
new SwaptionHelper(swaptions[i].lenght_,
swaptions[i].maturity_, swaptionVol, libor,
libor->tenor(), dayCounter,
libor->dayCounter(),
termStructure,
CalibrationHelper::ImpliedVolError));
swaptionHelper->setPricingEngine(
boost::shared_ptr<PricingEngine>(
new LfmSwaptionEngine(model, termStructure)));
calibrationHelper.push_back(swaptionHelper);
}
#ifdef _DEBUG
LevenbergMarquardt om(1e-5, 1e-5, 1e-5);
model->calibrate(calibrationHelper, om, EndCriteria(100, 20, 1e-5, 1e-5, 1e-6));
#else
boost::shared_ptr<OptimizationMethod> om(
new LevenbergMarquardt(1e-6, 1e-6, 1e-6));
//boost::shared_ptr<OptimizationMethod> om(new SteepestDescent);
model->calibrate(calibrationHelper, *om, EndCriteria(2000, 100, 1e-6, 1e-6, 1e-6));
#endif
// measure the calibration error
Real calculated = 0.0;
for (i = 0; i<calibrationHelper.size(); ++i) {
Real diff = calibrationHelper[i]->calibrationError();
calculated += diff * diff;
}
// create diagnostic file
{
std::string fileStr("C:/Temp/liborModel_1Y10_"); // build file path
fileStr.append(boost::posix_time::to_iso_string(
boost::posix_time::second_clock::local_time()));
fileStr.append(".csv");
utilities::csvBuilder file(fileStr); // csv builder
Array times(size_, 0.0); Array rates(size_, 0.0); // saves yield curve data
for (int i = 0; i < size_; i++) {
times[i] = fixingT[i]; // the fixing times from model
rates[i] = libor->forwardingTermStructure()->zeroRate(
times[i], Continuous);
}
file.add("times", 1, 1); file.add("rates", 1, 2); // adds the yield curve data
file.add(times, 2, 1); file.add(rates, 2, 2);
file.add(std::string("calibration result:"), 1, 4); // calibration result
file.add(model->endCriteria(), 2, 4);
file.add(std::string("calculated diff:"), 4, 4); // calibration result
file.add(std::sqrt(calculated), 5, 4);
file.add("correlation matrix at time zero", 1, 6); // correlation
file.add(corrModel->correlation(0), 2, 6);
}
}
KorCD_9M(const Handle<YieldTermStructure>& h =
Handle<YieldTermStructure>())
: KorCD(Period(9, Months), h) {}
FixedRateLeg::operator Leg() const {
QL_REQUIRE(!couponRates_.empty(), "no coupon rates given");
QL_REQUIRE(!notionals_.empty(), "no notional given");
Leg leg;
leg.reserve(schedule_.size()-1);
Calendar schCalendar = schedule_.calendar();
// first period might be short or long
Date start = schedule_.date(0), end = schedule_.date(1);
Date paymentDate = calendar_.adjust(end, paymentAdjustment_);
Date exCouponDate;
InterestRate rate = couponRates_[0];
Real nominal = notionals_[0];
if (exCouponPeriod_ != Period())
{
exCouponDate = exCouponCalendar_.advance(paymentDate,
-exCouponPeriod_,
exCouponAdjustment_,
exCouponEndOfMonth_);
}
if (schedule_.isRegular(1)) {
QL_REQUIRE(firstPeriodDC_.empty() ||
firstPeriodDC_ == rate.dayCounter(),
"regular first coupon "
"does not allow a first-period day count");
shared_ptr<CashFlow> temp(new
FixedRateCoupon(paymentDate, nominal, rate,
start, end, start, end, exCouponDate));
leg.push_back(temp);
} else {
Date ref = end - schedule_.tenor();
ref = schCalendar.adjust(ref, schedule_.businessDayConvention());
InterestRate r(rate.rate(),
firstPeriodDC_.empty() ? rate.dayCounter()
: firstPeriodDC_,
rate.compounding(), rate.frequency());
leg.push_back(shared_ptr<CashFlow>(new
FixedRateCoupon(paymentDate, nominal, r,
start, end, ref, end, exCouponDate)));
}
// regular periods
for (Size i=2; i<schedule_.size()-1; ++i) {
start = end; end = schedule_.date(i);
paymentDate = calendar_.adjust(end, paymentAdjustment_);
if (exCouponPeriod_ != Period())
{
exCouponDate = exCouponCalendar_.advance(paymentDate,
-exCouponPeriod_,
exCouponAdjustment_,
exCouponEndOfMonth_);
}
if ((i-1) < couponRates_.size())
rate = couponRates_[i-1];
else
rate = couponRates_.back();
if ((i-1) < notionals_.size())
nominal = notionals_[i-1];
else
nominal = notionals_.back();
leg.push_back(shared_ptr<CashFlow>(new
FixedRateCoupon(paymentDate, nominal, rate,
start, end, start, end, exCouponDate)));
}
if (schedule_.size() > 2) {
// last period might be short or long
Size N = schedule_.size();
start = end; end = schedule_.date(N-1);
paymentDate = calendar_.adjust(end, paymentAdjustment_);
if (exCouponPeriod_ != Period())
{
exCouponDate = exCouponCalendar_.advance(paymentDate,
-exCouponPeriod_,
exCouponAdjustment_,
exCouponEndOfMonth_);
}
if ((N-2) < couponRates_.size())
rate = couponRates_[N-2];
else
rate = couponRates_.back();
if ((N-2) < notionals_.size())
nominal = notionals_[N-2];
else
nominal = notionals_.back();
if (schedule_.isRegular(N-1)) {
leg.push_back(shared_ptr<CashFlow>(new
FixedRateCoupon(paymentDate, nominal, rate,
start, end, start, end, exCouponDate)));
} else {
Date ref = start + schedule_.tenor();
ref = schCalendar.adjust(ref, schedule_.businessDayConvention());
leg.push_back(shared_ptr<CashFlow>(new
FixedRateCoupon(paymentDate, nominal, rate,
start, end, start, ref, exCouponDate)));
}
}
return leg;
}