void testObj::test<3>(void)
{
MimeCreateHelper mch("[email protected]", Config::Recipients("[email protected]"), "re: stuff", "hello world");
vmime::ref<vmime::message> mime1=mch.createMimeMessage();
checkMsg(mime1);
vmime::ref<vmime::message> mime2=mch.createMimeMessage();
checkMsg(mime2);
}
void testObj::test<4>(void)
{
Config::Recipients to("[email protected]");
to.push_back("*****@*****.**");
to.push_back("*****@*****.**");
MimeCreateHelper mch("[email protected]", to, "re: stuff", "hello world");
vmime::ref<vmime::message> mime=mch.createMimeMessage();
checkMsg(mime);
}
void testObj::test<5>(void)
{
Config::Recipients to("[email protected]");
to.push_back("*****@*****.**");
to.push_back("*****@*****.**");
MimeCreateHelper mch("[email protected]", to, "re: stuff", "hello world");
vmime::ref<vmime::message> mime=mch.createMimeMessage();
const std::string msg=toString(mime);
ensure("recipient 1 is missing", msg.find("*****@*****.**")!=std::string::npos );
ensure("recipient 2 is missing", msg.find("*****@*****.**")!=std::string::npos );
}
void testObj::test<6>(void)
{
MimeCreateHelper mch("", Config::Recipients(""), "", "");
try
{
mch.createMimeMessage();
fail("exception not thrown on empty from/to fields");
}
catch(const ExceptionUnableToCreateMessage &)
{
// this is expected
}
}
void testObj::test<1>(void)
{
MimeCreateHelper mch("[email protected]", Config::Recipients("[email protected]"), "re: stuff", "hello world");
}
bool SUSY::PostUpdate()
{
if(!StandardModel::PostUpdate()) return (false);
/* Set the squark and slepton mass matrices and the trilinear-coupling matrices */
SetSoftTerms();
computeYukawas();
/* use approximate GUT relation if M1 & M2 are zero */
if(m1.abs() == 0. && m2.abs() == 0.) {
m1.real() = m3/6.;
m2.real() = m3/3.;
}
/* Compute Higgs and sparticle spectra with FeynHiggs */
if (IsFlag_FH()) {
/* BEGIN: REMOVE FROM THE PACKAGE */
if(!myFH->SetFeynHiggsPars()) return (false);
if(!myFH->CalcHiggsSpectrum()) return (false);
if(!myFH->CalcSpectrum()) return (false); /* FH does not calculate Sneutrino masses. */
/* END: REMOVE FROM THE PACKAGE */
}
else {
/* Compute Higgs and sparticle spectra without FeynHiggs */
/* sfermions */
for (int i = 0; i < 6; i++) {
m_sn2(i) = 0.;// heavy decoupled masses for i=3-5
m_se2(i) = 0.;
m_su2(i) = 0.;
m_sd2(i) = 0.;
m_sdresum2(i) = 0.;
for (int j = 0; j < 6; j++) {
/* R: first (second) index for mass (gauge) eigenstates */
/* UASf: second (third) index for gauge (mass) eigenstates */
Rn.assign(i,j, 0.);
Rl.assign(i,j, 0.);
Ru.assign(i,j, 0.);
Rd.assign(i,j, 0.);
Rdresum.assign(i,j, 0.);
}
}
/* charginos */
for (int i = 0; i < 2; i++) {
mch(i) = 0.;
for (int j = 0; j < 2; j++) {
/* U and V: first (second) index for mass (gauge) eigenstates */
/* Ucha and VCha: first (second) index for gauge (mass) eigenstates */
U.assign(i,j, 0.);
V.assign(i,j, 0.);
}
}
/* neutralinos */
for (int i = 0; i < 4; i++) {
mneu(i) = 0.;
for (int j = 0; j < 4; j++)
/* N: first (second) index for mass (gauge) eigenstates */
/* Zneu: first (second) index for gauge (mass) eigenstates */
N.assign(i,j, 0.);
}
if(!mySUSYSpectrum->CalcHiggs(mh,saeff)) return (false);
if(!mySUSYSpectrum->CalcChargino(U,V,mch)) return (false);
if(!mySUSYSpectrum->CalcNeutralino(N,mneu)) return (false);
if(!mySUSYSpectrum->CalcSup(Ru,m_su2)) return (false);
mySUSYSpectrum->SortSfermionMasses(m_su2, Ru);
if(!mySUSYSpectrum->CalcSdown(Rd,m_sd2)) return (false);
mySUSYSpectrum->SortSfermionMasses(m_sd2, Rd);
if(!mySUSYSpectrum->CalcSneutrino(Rn,m_sn2)) return (false);
mySUSYSpectrum->SortSfermionMasses(m_sn2, Rn);
if(!mySUSYSpectrum->CalcSelectron(Rl,m_se2)) return (false);
mySUSYSpectrum->SortSfermionMasses(m_se2, Rl);
}
// std::cout<<"muH S = "<<muH<<std::endl;
/* Set the mass of the SM-like Higgs */
/* allowed range for the use of EWSMApproximateFormulae class */
if (mh[0] < 10. || mh[0] > 1000.) {
std::stringstream out;
out << mh[0];
throw std::runtime_error("SUSY::PostUpdate(): mh=" + out.str() + " is out of range for EWSMApproximateFormulae");
return (false);
}
mHl = mh[0];
if( Q_SUSY == -1 || Q_SUSY == 0) Q_SUSY = sqrt( sqrt(m_su2(2) * m_su2(5)) );
/* For EWSUSY class */
myEWSUSY->SetRosiekParameters();
/* Necessary for updating SUSY and SUSY-derived parameters in SUSYMatching */
/* For SUSY Models only: The SM Matching needs to be updated here since StandardModel::PostUpdate() will not do it since the Higgs masses need to be computed. */
SUSYM.getObj().updateSMParameters();
SUSYM.getObj().updateSUSYParameters();
SUSYM.getObj().Comp_mySUSYMQ();
if (IsFlag_ne()) SUSYM.getObj().Comp_VdDNL(0);
if (IsFlag_ne()) SUSYM.getObj().Comp_VdDNR(0);
if (IsFlag_ch()) SUSYM.getObj().Comp_VdUCL();
if (IsFlag_ch()) SUSYM.getObj().Comp_VdUCR(0);
SUSYM.getObj().Comp_DeltaMd();
SUSYM.getObj().Comp_DeltaDL();
SUSYM.getObj().Comp_Eps_J();
SUSYM.getObj().Comp_Lambda0EpsY();
SUSYM.getObj().Comp_mySUSY_CKM();
if (IsFlag_h()) {
SUSYM.getObj().Comp_PHLR();
SUSYM.getObj().Comp_VUDHH();
SUSYM.getObj().Comp_PHRL();
}
if (IsFlag_ne()) {
SUSYM.getObj().Comp_VdDNL(1);
SUSYM.getObj().Comp_VdDNR(1);
SUSYM.getObj().Comp_VuUN();
}
if (IsFlag_ch()) {
SUSYM.getObj().Comp_VdUCR(1);
SUSYM.getObj().Comp_VuDCL();
SUSYM.getObj().Comp_VuDCR();
}
return (true);
}
