void NormalInterpolatorNode::update()
{
int n;
float fraction = getFraction();
int index = -1;
int nKey = getNKeys();
for (n=0; n<(nKey-1); n++) {
if (getKey(n) <= fraction && fraction <= getKey(n+1)) {
index = n;
break;
}
}
if (index == -1)
return;
float scale = (fraction - getKey(index)) / (getKey(index+1) - getKey(index));
float vector1[3];
float vector2[3];
float vectorOut[3];
getKeyValue(index, vector1);
getKeyValue(index+1, vector2);
for (n=0; n<3; n++)
vectorOut[n] = vector1[n] + (vector2[n] - vector1[n])*scale;
setValue(vectorOut);
sendEvent(getValueField());
}
float
Profiler::getFraction(MES nNom, MES nDenom) const
{
const Measurement* nom = getMes(nNom);
const Measurement* denom = getMes(nDenom);
if(!nom || !denom)
return 0.0f;
return getFraction(*nom, *denom);
}
void acceptance(const TString & path){
cout << path.Data() << endl;
getFraction(path);
TFile* f = new TFile(Form("/afs/cern.ch/work/t/tjkim/public/store/ttbb/paper/8TeV/ntuple/v3/vallot_%s.root",path.Data()));
//TFile* f = new TFile(Form("/afs/cern.ch/work/y/youngjo/public/For8Tev/v20130622_tthUpDw/vallot_%s.root",path.Data()));
//TFile* f = new TFile(Form("/afs/cern.ch/work/y/youngjo/public/For8Tev/v20130613_HFupdw/vallot_%s.root",path.Data()));
TTree* t_mm = (TTree*) f->Get("MuMu/tree");
TTree* t_ee = (TTree*) f->Get("ElEl/tree");
TTree* t_em = (TTree*) f->Get("MuEl/tree");
TH1* h_event_mm = (TH1F*) f->Get("MuMu/EventSummary");
double total = h_event_mm->GetBinContent(1);
TCut cut_em_S1 = "ZMass > 12 && isIso > 0 && PairSign < 0";
TCut cut_S1 = cut_em_S1;
TCut cut_em_S2 = "ZMass > 12 && isIso > 0 && PairSign < 0";
TCut cut_S2 = cut_em_S2 + "abs(ZMass-91.2) > 15";
TCut cut_em_S3 = "ZMass > 12 && isIso > 0 && PairSign < 0";
TCut cut_S3 = cut_em_S3 + "abs(ZMass-91.2) > 15 && MET > 30";
//TCut cut_em_S4 = "ZMass > 12 && isIso > 0 && PairSign < 0 && nJet30 >=4";
TCut cut_em_S4 = "ZMass > 12 && isIso > 0 && PairSign < 0 && nJet50 >=4";
TCut cut_S4 = cut_em_S4 + "abs(ZMass-91.2) > 15 && MET > 30";
//TCut cut_em_S5M = "ZMass > 12 && isIso > 0 && PairSign < 0 && nJet30 >=4 && nbjets30_CSVM >= 2";
TCut cut_em_S5M = "ZMass > 12 && isIso > 0 && PairSign < 0 && nJet50 >=4 && nbjets30_CSVM >= 2";
TCut cut_S5M = cut_em_S5M + "abs(ZMass-91.2) > 15 && MET > 30";
//TCut cut_em_S5 = "ZMass > 12 && isIso > 0 && PairSign < 0 && nJet30 >=4 && nbjets30_CSVT >= 2";
TCut cut_em_S5 = "ZMass > 12 && isIso > 0 && PairSign < 0 && nJet50 >=4 && nbjets30_CSVT >= 2";
TCut cut_S5 = cut_em_S5 + "abs(ZMass-91.2) > 15 && MET > 30";
print(t_mm, t_ee, t_em, total, cut_S1, cut_em_S1,"S1");
print(t_mm, t_ee, t_em, total, cut_S2, cut_em_S2,"S2");
print(t_mm, t_ee, t_em, total, cut_S3, cut_em_S3,"S3");
print(t_mm, t_ee, t_em, total, cut_S4, cut_em_S4,"S4");
print(t_mm, t_ee, t_em, total, cut_S5M, cut_em_S5M,"S5M");
print(t_mm, t_ee, t_em, total, cut_S5, cut_em_S5,"S5");
}
// This method merges the following spec sections for efficiency
// http://www.w3.org/TR/css3-syntax/#consume-a-number
// http://www.w3.org/TR/css3-syntax/#convert-a-string-to-a-number
MediaQueryToken MediaQueryTokenizer::consumeNumber()
{
ASSERT(nextCharsAreNumber());
NumericValueType type = IntegerValueType;
double value = 0;
unsigned offset = 0;
int exponentSign = 1;
unsigned fractionDigits;
int sign = getSign(m_input, offset);
unsigned long long integerPart = getInteger(m_input, offset);
double fractionPart = getFraction(m_input, offset, fractionDigits);
unsigned long long exponentPart = getExponent(m_input, offset, exponentSign);
double exponent = pow(10, (float)exponentSign * (double)exponentPart);
value = (double)sign * ((double)integerPart + fractionPart) * exponent;
m_input.advance(offset);
if (fractionDigits > 0)
type = NumberValueType;
return MediaQueryToken(NumberToken, value, type);
}
/**********************************************************
* getExtTemp - Gets the current external temperature from the sensor.
*
* @return float - The external temperature in degrees C
**********************************************************/
float TMP421::getExtTemp(void)
{
uint8_t highByte = 0x00, lowByte = 0x00;
// I2c.beginTransmission(_address);
// I2c.write(0x01);
// I2c.endTransmission();
// I2c.requestFrom((int)_address, 2); // request 2 byte from address 1001000
// while(I2c.available())
// {
// highByte = I2c.read(); // Read the first octet
// lowByte = I2c.read(); // Read the second octet
// }
I2c.write(_address, (byte) 0x01);
I2c.read(_address, (uint8_t) 2);
if(I2c.available()) {
highByte = I2c.receive();
lowByte = I2c.receive();
}
return getFraction(highByte, lowByte);
}
// This method merges the following spec sections for efficiency
// http://www.w3.org/TR/css3-syntax/#consume-a-number
// http://www.w3.org/TR/css3-syntax/#convert-a-string-to-a-number
CSSParserToken CSSTokenizer::consumeNumber()
{
ASSERT(nextCharsAreNumber());
NumericValueType type = IntegerValueType;
double value = 0;
unsigned offset = 0;
int exponentSign = 1;
NumericSign sign = getSign(m_input, offset);
double integerPart = getInteger(m_input, offset);
unsigned integerPartEndOffset = offset;
double fractionPart = getFraction(m_input, offset);
double exponentPart = getExponent(m_input, offset, exponentSign);
double exponent = pow(10, (float)exponentSign * (double)exponentPart);
value = ((double)integerPart + fractionPart) * exponent;
if (sign == MinusSign)
value = -value;
m_input.advance(offset);
if (offset != integerPartEndOffset)
type = NumberValueType;
return CSSParserToken(NumberToken, value, type, sign);
}
float GUIProgressBar::getValue() const
{
return rangeMinValue_ + getFraction() * (rangeMaxValue_ - rangeMinValue_);
}
void Timer::invert()
{
mCurrentCounter = U32((1.0f - getFraction()) * mPeriod);
}
F32 SlideOutWidget::getInsideEdge() const
{
return getFraction() * (mStartingOffset - mWidth);
}
