26 radLenIncm_ = (radLenIncm_ < 0) ? radLenIngcm2_ / rho_ : radLenIncm_;
30 (criticalEnergy_ < 0) ? 2.66E-3 * TMath::Power((radLenIngcm2_ * Zeff_ / Aeff_), 1.1) :
criticalEnergy_;
47 edm::LogInfo(
"ECALProperties") <<
" ========== Endcap ========= \n"
48 <<
" isHom ? " << bHom_ <<
"\n"
49 <<
" da = " << da_ <<
" dp = " << dp_ <<
" lightColl = " << lightColl_ <<
"\n"
50 <<
" lightCollUnif_ = " << lightCollUnif_ <<
"\n"
51 <<
" photoStatistics_ = " << photoStatistics_ <<
" photons/GeV\n"
52 <<
" thickness_ = " << thickness_ <<
" in cm \n"
53 <<
" interactionLength_ = " << interactionLength_ <<
" cm \n"
54 <<
" Aeff_ = " << Aeff_ <<
"\n"
55 <<
" Zeff_ = " << Zeff_ <<
"\n"
56 <<
" rho_ = " << rho_ <<
" g/cm3\n"
57 <<
" radLenIngcm2_ = " << radLenIngcm2_ <<
" g*cm2\n"
58 <<
" radLenIncm_ = " << radLenIncm_ <<
" cm\n"
59 <<
" moliereRadius_ = " << moliereRadius_ <<
" cm\n"
60 <<
" criticalEnergy_ = " << criticalEnergy_ <<
" GeV\n"
62 <<
" Fs = " <<
Fs_ <<
" ehat = " << ehat_ <<
" resE = " << resE_ <<
"\n";
const double scaleEnergy_
Log< level::Info, false > LogInfo
T getParameter(std::string const &) const
double interactionLength_
ECALEndcapProperties(const edm::ParameterSet &fastDet)