Merge branch 'beta-NMR' into root6

This commit is contained in:
2019-05-15 09:00:47 +02:00
30 changed files with 2561 additions and 13280 deletions

13
INSTALL
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@ -21,8 +21,7 @@ directory and
make install (as superuser -- maybe)
/sbin/ldconfig (as superuser)
cmake configuration allows a couple of switches. For details check the user
docu under
cmake configuration allows a couple of switches. For details check the documentation at
http://lmu.web.psi.ch/musrfit/user/MUSR/MusrFitSetup.html
@ -35,16 +34,16 @@ An example with NeXus support and BMWlibs needed would look like this
make install (as superuser -- maybe)
/sbin/ldconfig (as superuser)
In the optimal case, everything is set up ;-)
If all goes well, you should be good to go ;-)
#----------------------------------
# Link to the docu
# Link to the documentation
#----------------------------------
More information about the software requirements and the installation can be found at:
More information regarding software requirements and installation can be found at
http://lmu.web.psi.ch/musrfit/user/MUSR/MusrFitSetup.html
http://lmu.web.psi.ch/musrfit/user/MUSR/MusrFitSetup.html
#---------------------------------------------------------------------
# this is the end ...
# good luck ...
#---------------------------------------------------------------------

30
README
View File

@ -1,4 +1,5 @@
README
------
musrfit - muSR data analysis package
@ -6,30 +7,33 @@ Contents
--------
This is a data analysis package to analyze time differential muSR and beta-NMR data.
Currently it allows the following things:
Currently it allows the following,
* setting up most commonly used fitting functions for muSR and beta-NMR
* fitting data, including global fits
* showing the fit results and the residuals
* showing the Fourier transform of the data
* extracting easily the fitting parameters to be used in other programs (gnuplot, qtiplot/origin, ...)
* allows to generate fitting input files for follow-up runs
* allows to generate global fitting input files based on a single run template
* allows to implement more sophisticated user functions
* set up most commonly used fitting functions for muSR and beta-NMR
* fit data, including global fits
* show the fit results and the residuals
* show the Fourier transform of the data
* easily extract the fit parameters and import in other programs (gnuplot, qtiplot/origin, ...)
* generate input fitting files for follow-up runs
* generate global input fitting files based on a single run template
* implement more sophisticated user functions
(e.g. GL vortex lattice, Meissner screening including low-energy muon stopping profiles)
Currently supported platforms:
Currently supported platforms
-----------------------------
* Linux
* Mac OS X
* Windows - not really, only for the very brave ones
* Windows - not really, only for experts
* Web based implementation - http://musruser.psi.ch/cgi-bin/musrfit.cgi
Documentation
-------------
For a more exhaustive user documentation see:
For a more extensive user documentation see:
http://lmu.web.psi.ch/musrfit/user/html/index.html
Contact
<andreas.suter@psi.ch>
<zaher.salman@psi.ch>

View File

@ -1,4 +1,4 @@
# musrfit - muSR data analysis package #
# musrfit - muSR and beta-NMR data analysis package #
### Contents ###
@ -19,7 +19,7 @@ Currently it allows the following things:
* Linux
* Mac OS X
* Windows - not really, only for the very brave ones
* Windows - not really, but possible.
### Documentation ####
@ -29,5 +29,4 @@ For a more exhaustive user documentation see:
### Contact ###
<andreas.suter@psi.ch>
<zaher.salman@psi.ch>

View File

@ -855,7 +855,7 @@ Currently the supported GLOBAL block entries are:
* ``rrf_freq`` for fittype 1, 3
* ``rrf_packing`` for fittype 1, 3
* ``rrf_phase`` for fittype 1, 3
* ``packing`` for fittype 0, 2, 4
* ``packing`` for fittype 0, 2, 4, 5
For a detailed discussion of these entries see the section :ref:`RUN block <msr-run-block>`.
@ -1049,6 +1049,8 @@ In order to describe the operations needed for fitting and plotting, quite some
Asymmetry RRF Fit (only for online analysis)
**4**
MuMinus Fit. This is a single histogram fit especially for negative muon |mgr|\SR
**5**
beta-NMR Asymmetry Fit
**8**
Non-|mgr|\SR Fit
@ -1061,8 +1063,8 @@ In order to describe the operations needed for fitting and plotting, quite some
.. index:: alpha-beta
.. _msr-alpha-beta:
**alpha, beta** (fit type 2, 3)
These parameters are used to correct the asymmetry for different detector efficiencies, solid angles and initial asymmetries. They are defined as :math:`\alpha = N_{0,b}/N_{0,f}` and :math:`\beta = A_{0,b}/A_{0,f}`. If the parameters are not specified in the :ref:`RUN block <msr-run-block>`, for each one the value of 1 is assumed. Example for alpha with fit parameter number 1:
**alpha, beta** (fit type 2, 3, 5)
These parameters are used to correct the asymmetry for different detector efficiencies, solid angles and initial asymmetries. They are defined as :math:`\alpha = N_{0,b}/N_{0,f}` and :math:`\beta = A_{0,b}/A_{0,f}`. If the parameters are not specified in the :ref:`RUN block <msr-run-block>`, for each one the value of 1 is assumed (for fittype 5 alpha is estimated from the ration of sum of Bp+Bm and Fp+Fm). Example for alpha with fit parameter number 1:
::
@ -1141,10 +1143,19 @@ In order to describe the operations needed for fitting and plotting, quite some
forward 1-3
backward 7-9
**forward, backward** (fit type 5)
Numbers of the histograms in the data file that should be taken to calculate the asymmetry. Two forward and backward histograms should be given indicationg positive and negative helicities. The asymmetry from opposite helicities will be subtracted. Examples:
::
# build forward/backward asymmetry with histogram 1 and 3 then subtract asymmetry built with histograms 2 and 4
forward 1 2
backward 3 4
.. index:: backgr.fix
.. _msr-backgr.fix:
**backgr.fix** (fit types 0, 1, 2, 3)
**backgr.fix** (fit types 0, 1, 2, 3, 5)
A fixed constant background in counts per nanosecond or per bin (see :ref:`below <msr-commands-block>`) may be given at this point.
The background is specified for all histograms in the order :math:`B_f B_b [B_r B_l]`. If this keyword is present, *any* information on a ``background`` line is ignored.
@ -1162,7 +1173,7 @@ In order to describe the operations needed for fitting and plotting, quite some
.. index:: background-asymmetry
.. _msr-background-asymmetry:
**background** (fit types 2, 3)
**background** (fit types 2, 3, 5)
The numbers of the first and the last channel of an interval from which the constant background should be calculated are specified here.
For all the histograms this is done together in the following order: :math:`k_{f,\rm first} k_{f,\rm last} k_{b,\rm first} k_{b, \rm last} [k_{r,\rm first} k_{r,\rm last} k_{l,\rm first} k_{l,\rm last}]`.
In case histograms are being grouped, the specified channels are interpreted with respect to the first histograms. Example:
@ -1186,7 +1197,7 @@ In order to describe the operations needed for fitting and plotting, quite some
.. index:: data-asymmetry
.. _msr-data-asymmetry:
**data** (fit type 2, 3)
**data** (fit type 2, 3, 5)
The numbers of the first and the last channel of an interval from which the data is taken are specified here.
Typically these channels are referred to as first good bin / last good bin (fgb/lgb). For all the histograms this is
done together in the following order: :math:`k_{f,\rm first} k_{f,\rm last} k_{b,\rm first} k_{b, \rm last} [k_{r,\rm first} k_{r,\rm last} k_{l,\rm first} k_{l,\rm last}]`.
@ -1210,8 +1221,8 @@ In order to describe the operations needed for fitting and plotting, quite some
.. index:: t0-asymmetry
.. _msr-t0-asymmetry:
**t0** (fit type 2, 3)
The numbers of time-zero channels of the histograms in the order :math:`t_{0,f} t_{0,b}`. Example:
**t0** (fit type 2, 3, 5)
The numbers of time-zero channels of the histograms in the order :math:`t_{0,f} t_{0,b}`. For fit type 5, the time-zero is the channel of the start of beam pulse. Example:
::
@ -1229,7 +1240,7 @@ In order to describe the operations needed for fitting and plotting, quite some
.. index:: addt0-asymmetry
.. _msr-addt0-asymmetry:
**addt0** (fit type 2, 3)
**addt0** (fit type 2, 3, 5)
The numbers of time-zero channels of the histograms in the order :math:`t_{0,f} t_{0,b} [t_{0,r} t_{0,l}]`.
If grouping of histograms is present (see :ref:`forward <msr-forward-backward>`) the same syntax as for :ref:`t0 <msr-t0-asymmetry>` applies.
If one addt0 is given, the total number of addt0's needs to be equal to the total number of :ref:`ADDRUN <msr-addrun>`\'s!
@ -1851,6 +1862,55 @@ where :math:`i` runs over the different lifetime channels of :math:`\mu^{-}`, an
Since MuMinus is quite generic, the full functional depends has to be written in the :ref:`THEORY Block <msr-theory-block>`.
.. index:: bnmr-asymmetry-fit
.. _bnmr-asymmetry-fit:
beta-NMR Asymmetry Fit (fit type 5)
+++++++++++++++++++++++++++++++++++
For a beta-NMR asymmetry fit (fit type 5) four histograms are needed, two for positive and two for negative helicities. These are given by the :ref:`forward <msr-forward-backward>` and :ref:`backward <msr-forward-backward>` keywords
in the :ref:`RUN block <msr-run-block>`. Additionally, the parameters :ref:`alpha <msr-alpha-beta>` and :ref:`beta <msr-alpha-beta>` which relate the detector
efficiencies, solid angles and initial asymmetries of the two detectors can be supplied. The constant background for the two histograms is either given by
:ref:`background-determined intervals <msr-background-asymmetry>` or specified through :ref:`backgr.fix <msr-backgr.fix>` in the :ref:`RUN-block <msr-run-block>`.
The experimental asymmetry :math:`a(k)` then is calculated from the four histograms:
.. math::
a(k)=\frac{\left[N_{\mathrm{fp}}(k)-B_{\mathrm{fp}}\right]-\left[N_{\mathrm{bp}}(k)-B_{\mathrm{bp}}\right]}{\left[N_{\mathrm{fp}}(k)-B_{\mathrm{fp}}\right]+\left[N_{\mathrm{bp}}(k)-B_{\mathrm{bp}}\right]}
- \frac{\left[N_{\mathrm{fm}}(k)-B_{\mathrm{fm}}\right]-\left[N_{\mathrm{bm}}(k)-B_{\mathrm{bm}}\right]}{\left[N_{\mathrm{fm}}(k)-B_{\mathrm{fm}}\right]+\left[N_{\mathrm{bm}}(k)-B_{\mathrm{bm}}\right]},
with
* :math:`N_{\mathrm{fp}}(k)`: counts in the **forward** histogram channel with positive helicity :math:`k`
* :math:`N_{\mathrm{bp}}(k)`: counts in the **backward** histogram channel with positive helicity :math:`k`
* :math:` B_{\mathrm{fp}}`: constant background in the **forward** histogram with positive helicity (RUN block: :ref:`backgr.fix <msr-backgr.fix>` or :ref:`background <msr-background-asymmetry>`)
* :math:` B_{\mathrm{bp}}`: constant background in the **backward** histogram with positive helicity (RUN block: :ref:`backgr.fix <msr-backgr.fix>` or :ref:`background <msr-background-asymmetry>`)
* :math:`N_{\mathrm{fm}}(k)`: counts in the **forward** histogram channel with negative helicity :math:`k`
* :math:`N_{\mathrm{bm}}(k)`: counts in the **backward** histogram channel with negative helicity :math:`k`
* :math:` B_{\mathrm{fm}}`: constant background in the **forward** histogram with negative helicity (RUN block: :ref:`backgr.fix <msr-backgr.fix>` or :ref:`background <msr-background-asymmetry>`)
* :math:` B_{\mathrm{bm}}`: constant background in the **backward** histogram with negative helicity (RUN block: :ref:`backgr.fix <msr-backgr.fix>` or :ref:`background <msr-background-asymmetry>`)
This theoretical asymmetry :math:`a(t)` is used to fit the function
.. math::
a(t)=\frac{(\alpha\beta +1)A(t)-(\alpha -1)}{(\alpha +1)-(\alpha\beta -1)A(t)} - \frac{(\alpha -1)-(\alpha\beta 1)A(t)}{(\alpha +1)+(\alpha\beta -1)Am(t)},
where
* :math:`\alpha`: accounts for the different detector efficiencies and solid angles (RUN block: :ref:`alpha <msr-alpha-beta>`).
* :math:`\beta`: accounts for the different detector asymmetries (RUN block: :ref:`beta <msr-alpha-beta>`).
* :math:`A(t)`: is the depolarization function as given in the :ref:`THEORY block <msr-theory-block>`.
For the graphical representation in plot type 5 the equation above is rearranged to get :math:`A(t)`:
.. math::
A(t)=\frac{(\alpha -1)+(\alpha +1)a(t)}{(\alpha\beta +1)+(\alpha\beta -1)a(t)}-\frac{(\alpha +1)a(t)-(\alpha -1)}{(\alpha\beta +1)+(1-\alpha\beta)a(t)}=\frac{\alpha\left[N_{\mathrm{fp}}(t)-B_{\mathrm{fp}}\right]-\left[N_{\mathrm{bp}}(t)-B_{\mathrm{bp}}\right]}{\alpha\beta\left[N_{\mathrm{fp}}(t)-B_{\mathrm{fp}}\right]+\left[N_{\mathrm{bp}}(t)-B_{\mathrm{bp}}\right]} -\frac{\alpha\left[N_{\mathrm{fm}}(t)-B_{\mathrm{fm}}\right]-\left[N_{\mathrm{bm}}(t)-B_{\mathrm{bm}}\right]}{\alpha\beta\left[N_{\mathrm{fm}}(t)-B_{\mathrm{fm}}\right]+\left[N_{\mathrm{bm}}(t)-B_{\mathrm{bm}}\right]}
and plotted together with the function given in the THEORY block.
.. index:: non-musr-fit
.. _non-musr-fit:

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@ -71,6 +71,7 @@ add_library(PMusr SHARED
PMusrT0Dict.cxx
PPrepFourier.cpp
PRunAsymmetry.cpp
PRunAsymmetryBNMR.cpp
PRunAsymmetryRRF.cpp
PRunBase.cpp
PRunDataHandler.cpp

View File

@ -77,6 +77,7 @@ Double_t PFitterFcn::operator()(const std::vector<Double_t>& par) const
value += fRunListCollection->GetSingleHistoRRFChisq(par);
value += fRunListCollection->GetAsymmetryChisq(par);
value += fRunListCollection->GetAsymmetryRRFChisq(par);
value += fRunListCollection->GetAsymmetryBNMRChisq(par);
value += fRunListCollection->GetMuMinusChisq(par);
value += fRunListCollection->GetNonMusrChisq(par);
} else { // max likelihood
@ -84,6 +85,7 @@ Double_t PFitterFcn::operator()(const std::vector<Double_t>& par) const
value += fRunListCollection->GetSingleHistoRRFMaximumLikelihood(par);
value += fRunListCollection->GetAsymmetryMaximumLikelihood(par);
value += fRunListCollection->GetAsymmetryRRFMaximumLikelihood(par);
value += fRunListCollection->GetAsymmetryBNMRMaximumLikelihood(par);
value += fRunListCollection->GetMuMinusMaximumLikelihood(par);
value += fRunListCollection->GetNonMusrMaximumLikelihood(par);
}

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@ -640,6 +640,9 @@ Int_t PMsrHandler::WriteMsrLogFile(const Bool_t messages)
case MSR_FITTYPE_MU_MINUS:
fout << std::left << "fittype" << MSR_FITTYPE_MU_MINUS << " (mu minus fit)" << std::endl ;
break;
case MSR_FITTYPE_BNMR:
fout << std::left << "fittype" << MSR_FITTYPE_BNMR << " (beta-NMR fit)" << std::endl ;
break;
case MSR_FITTYPE_NON_MUSR:
fout << std::left << "fittype" << MSR_FITTYPE_NON_MUSR << " (non muSR fit)" << std::endl ;
break;
@ -804,6 +807,9 @@ Int_t PMsrHandler::WriteMsrLogFile(const Bool_t messages)
case MSR_FITTYPE_MU_MINUS:
fout << std::left << "fittype" << MSR_FITTYPE_MU_MINUS << " (mu minus fit)" << std::endl ;
break;
case MSR_FITTYPE_BNMR:
fout << std::left << "fittype" << MSR_FITTYPE_BNMR << " (beta-NMR fit)" << std::endl ;
break;
case MSR_FITTYPE_NON_MUSR:
fout << std::left << "fittype" << MSR_FITTYPE_NON_MUSR << " (non muSR fit)" << std::endl ;
break;
@ -1167,6 +1173,9 @@ Int_t PMsrHandler::WriteMsrLogFile(const Bool_t messages)
case MSR_PLOT_MU_MINUS:
fout << "PLOT " << fPlots[plotNo].fPlotType << " (mu minus plot)" << std::endl;
break;
case MSR_PLOT_BNMR:
fout << "PLOT " << fPlots[plotNo].fPlotType << " (beta-NMR asymmetry plot)" << std::endl;
break;
case MSR_PLOT_NON_MUSR:
fout << "PLOT " << fPlots[plotNo].fPlotType << " (non muSR plot)" << std::endl;
break;
@ -1716,6 +1725,9 @@ Int_t PMsrHandler::WriteMsrFile(const Char_t *filename, std::map<UInt_t, TString
case MSR_FITTYPE_MU_MINUS:
fout << std::left << "fittype" << MSR_FITTYPE_MU_MINUS << " (mu minus fit)" << std::endl ;
break;
case MSR_FITTYPE_BNMR:
fout << std::left << "fittype" << MSR_FITTYPE_BNMR << " (beta-NMR fit)" << std::endl ;
break;
case MSR_FITTYPE_NON_MUSR:
fout << std::left << "fittype" << MSR_FITTYPE_NON_MUSR << " (non muSR fit)" << std::endl ;
break;
@ -1907,6 +1919,9 @@ Int_t PMsrHandler::WriteMsrFile(const Char_t *filename, std::map<UInt_t, TString
case MSR_FITTYPE_MU_MINUS:
fout << std::left << "fittype" << MSR_FITTYPE_MU_MINUS << " (mu minus fit)" << std::endl ;
break;
case MSR_FITTYPE_BNMR:
fout << std::left << "fittype" << MSR_FITTYPE_BNMR << " (beta-NMR fit)" << std::endl ;
break;
case MSR_FITTYPE_NON_MUSR:
fout << std::left << "fittype" << MSR_FITTYPE_NON_MUSR << " (non muSR fit)" << std::endl ;
break;
@ -2263,6 +2278,9 @@ Int_t PMsrHandler::WriteMsrFile(const Char_t *filename, std::map<UInt_t, TString
case MSR_PLOT_MU_MINUS:
fout << "PLOT " << fPlots[i].fPlotType << " (mu minus plot)" << std::endl;
break;
case MSR_PLOT_BNMR:
fout << "PLOT " << fPlots[i].fPlotType << " (beta-NMR asymmetry plot)" << std::endl;
break;
case MSR_PLOT_NON_MUSR:
fout << "PLOT " << fPlots[i].fPlotType << " (non muSR plot)" << std::endl;
break;
@ -2981,6 +2999,7 @@ Bool_t PMsrHandler::HandleGlobalEntry(PMsrLines &lines)
(fittype == MSR_FITTYPE_ASYM) ||
(fittype == MSR_FITTYPE_ASYM_RRF) ||
(fittype == MSR_FITTYPE_MU_MINUS) ||
(fittype == MSR_FITTYPE_BNMR) ||
(fittype == MSR_FITTYPE_NON_MUSR)) {
global.SetFitType(fittype);
} else {
@ -3322,6 +3341,7 @@ Bool_t PMsrHandler::HandleRunEntry(PMsrLines &lines)
(fittype == MSR_FITTYPE_ASYM) ||
(fittype == MSR_FITTYPE_ASYM_RRF) ||
(fittype == MSR_FITTYPE_MU_MINUS) ||
(fittype == MSR_FITTYPE_BNMR) ||
(fittype == MSR_FITTYPE_NON_MUSR)) {
param.SetFitType(fittype);
} else {
@ -4589,6 +4609,7 @@ Bool_t PMsrHandler::HandlePlotEntry(PMsrLines &lines)
case MSR_PLOT_SINGLE_HISTO: // like: runs 1 5 13
case MSR_PLOT_SINGLE_HISTO_RRF:
case MSR_PLOT_ASYM:
case MSR_PLOT_BNMR:
case MSR_PLOT_ASYM_RRF:
case MSR_PLOT_NON_MUSR:
case MSR_PLOT_MU_MINUS:
@ -5006,6 +5027,7 @@ Bool_t PMsrHandler::HandlePlotEntry(PMsrLines &lines)
std::cerr << std::endl << ">> 2=forward-backward asym,";
std::cerr << std::endl << ">> 3=forward-backward RRF asym,";
std::cerr << std::endl << ">> 4=mu minus single histo,";
std::cerr << std::endl << ">> 5=forward-backward beta-NMR asym,";
std::cerr << std::endl << ">> 8=non muSR.";
std::cerr << std::endl << ">> <run_list> is the list of runs, e.g. runs 1 3";
std::cerr << std::endl << ">> range is optional";
@ -5863,6 +5885,58 @@ Bool_t PMsrHandler::CheckRunBlockIntegrity()
fRuns[i].SetPacking(1);
}
break;
case PRUN_ASYMMETRY_BNMR:
// check alpha
// if ((fRuns[i].GetAlphaParamNo() == -1) && !fFourierOnly) {
// std::cerr << std::endl << ">> PMsrHandler::CheckRunBlockIntegrity(): **ERROR** in RUN block number " << i+1;
// std::cerr << std::endl << ">> alpha parameter number missing which is needed for an asymmetry fit.";
// std::cerr << std::endl << ">> Consider to check the manual ;-)" << std::endl;
// return false;
// }
// check that there is a forward parameter number
if (fRuns[i].GetForwardHistoNo() == -1) {
std::cerr << std::endl << ">> PMsrHandler::CheckRunBlockIntegrity(): **ERROR** in RUN block number " << i+1;
std::cerr << std::endl << ">> forward histogram number not defined. Necessary for asymmetry fits." << std::endl;
return false;
}
// check that there is a backward parameter number
if (fRuns[i].GetBackwardHistoNo() == -1) {
std::cerr << std::endl << ">> PMsrHandler::CheckRunBlockIntegrity(): **ERROR** in RUN block number " << i+1;
std::cerr << std::endl << ">> backward histogram number not defined. Necessary for asymmetry fits." << std::endl;
return false;
}
// check fit range
if (!fRuns[i].IsFitRangeInBin()) { // fit range given as times in usec
if ((fRuns[i].GetFitRange(0) == PMUSR_UNDEFINED) || (fRuns[i].GetFitRange(1) == PMUSR_UNDEFINED)) {
if ((fGlobal.GetFitRange(0) == PMUSR_UNDEFINED) || (fGlobal.GetFitRange(1) == PMUSR_UNDEFINED)) {
std::cerr << std::endl << ">> PMsrHandler::CheckRunBlockIntegrity(): **ERROR** in RUN block number " << i+1;
std::cerr << std::endl << ">> Fit range is not defined, also NOT present in the GLOBAL block. Necessary for asymmetry fits." << std::endl;
return false;
}
}
}
// check number of T0's provided
if ((fRuns[i].GetT0BinSize() > 2*fRuns[i].GetForwardHistoNoSize()) &&
(fGlobal.GetT0BinSize() > 2*fRuns[i].GetForwardHistoNoSize())) {
std::cerr << std::endl << ">> PMsrHandler::CheckRunBlockIntegrity(): **ERROR** in RUN block number " << i+1;
std::cerr << std::endl << ">> Found " << fRuns[i].GetT0BinSize() << " T0 entries. Expecting only " << 2*fRuns[i].GetForwardHistoNoSize() << " in forward. Needs to be fixed." << std::endl;
std::cerr << std::endl << ">> In GLOBAL block: " << fGlobal.GetT0BinSize() << " T0 entries. Expecting only " << 2*fRuns[i].GetForwardHistoNoSize() << ". Needs to be fixed." << std::endl;
return false;
}
if ((fRuns[i].GetT0BinSize() > 2*fRuns[i].GetBackwardHistoNoSize()) &&
(fGlobal.GetT0BinSize() > 2*fRuns[i].GetBackwardHistoNoSize())) {
std::cerr << std::endl << ">> PMsrHandler::CheckRunBlockIntegrity(): **ERROR** in RUN block number " << i+1;
std::cerr << std::endl << ">> Found " << fRuns[i].GetT0BinSize() << " T0 entries. Expecting only " << 2*fRuns[i].GetBackwardHistoNoSize() << " in backward. Needs to be fixed." << std::endl;
std::cerr << std::endl << ">> In GLOBAL block: " << fGlobal.GetT0BinSize() << " T0 entries. Expecting only " << 2*fRuns[i].GetBackwardHistoNoSize() << ". Needs to be fixed." << std::endl;
return false;
}
// check packing
if ((fRuns[i].GetPacking() == -1) && (fGlobal.GetPacking() == -1)) {
std::cerr << std::endl << ">> PMsrHandler::CheckRunBlockIntegrity(): **WARNING** in RUN block number " << i+1;
std::cerr << std::endl << ">> Packing is neither defined here, nor in the GLOBAL block, will set it to 1." << std::endl;
fRuns[i].SetPacking(1);
}
break;
case PRUN_ASYMMETRY_RRF:
// check alpha
if ((fRuns[i].GetAlphaParamNo() == -1) && !fFourierOnly) {
@ -6207,7 +6281,7 @@ Bool_t PMsrHandler::CheckHistoGrouping()
Bool_t result = true;
for (UInt_t i=0; i<fRuns.size(); i++) {
if (fRuns[i].GetFitType() == MSR_FITTYPE_ASYM) {
if (fRuns[i].GetFitType() == MSR_FITTYPE_ASYM || fRuns[i].GetFitType() == MSR_FITTYPE_BNMR) {
if (fRuns[i].GetForwardHistoNoSize() != fRuns[i].GetBackwardHistoNoSize()) {
std::cerr << std::endl << ">> PMsrHandler::CheckHistoGrouping: **ERROR** # of forward histos != # of backward histos.";
std::cerr << std::endl << ">> Run #" << i+1;

View File

@ -1878,6 +1878,19 @@ void PMsrRunBlock::SetMapGlobal(UInt_t idx, Int_t ival)
return;
}
//--------------------------------------------------------------------------
// SetEstimatedAlpha (public)
//--------------------------------------------------------------------------
/**
* <p> set the value of estimated alpha at position idx
*
* \param alpha is the estimated value
*/
void PMsrRunBlock::SetEstimatedAlpha(Double_t dval)
{
fAlpha = dval;
}
//+++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
// implementation PStringNumberList
//+++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++

View File

@ -710,6 +710,18 @@ void PMusrCanvas::UpdateDataTheoryPad()
// handle data
HandleDataSet(i, runNo, data);
break;
case MSR_FITTYPE_BNMR:
data = fRunList->GetAsymmetryBNMR(runNo, PRunListCollection::kRunNo);
if (!data) { // something wrong
fValid = false;
// error message
std::cerr << std::endl << ">> PMusrCanvas::UpdateDataTheoryPad(): **ERROR** couldn't obtain run no " << runNo << " for a beta-NMR asymmetry plot";
std::cerr << std::endl;
return;
}
// handle data
HandleDataSet(i, runNo, data);
break;
case MSR_FITTYPE_ASYM_RRF:
data = fRunList->GetAsymmetryRRF(runNo, PRunListCollection::kRunNo);
if (!data) { // something wrong
@ -902,7 +914,8 @@ void PMusrCanvas::UpdateInfoPad()
tstr += grouping;
tstr += TString(",");
} else if ((runs[runNo].GetFitType() == MSR_FITTYPE_ASYM) ||
(runs[runNo].GetFitType() == MSR_FITTYPE_ASYM_RRF)) {
(runs[runNo].GetFitType() == MSR_FITTYPE_ASYM_RRF) ||
(runs[runNo].GetFitType() == MSR_FITTYPE_BNMR)) {
tstr += TString("h:");
TString grouping;
fMsrHandler->GetGroupingString(runNo, "forward", grouping);
@ -1597,6 +1610,7 @@ void PMusrCanvas::ExportData(const Char_t *fileName)
case MSR_PLOT_SINGLE_HISTO:
case MSR_PLOT_SINGLE_HISTO_RRF:
case MSR_PLOT_ASYM:
case MSR_PLOT_BNMR:
case MSR_PLOT_ASYM_RRF:
case MSR_PLOT_MU_MINUS:
if (fDifferenceView) { // difference view plot
@ -2756,7 +2770,7 @@ void PMusrCanvas::HandleDataSet(UInt_t plotNo, UInt_t runNo, PRunData *data)
size = data->GetValue()->size();
dataSet.dataRange->SetXRange(start, end); // full possible range
// make sure that for asymmetry the y-range is initialized reasonably
if (fMsrHandler->GetMsrPlotList()->at(fPlotNumber).fPlotType == MSR_PLOT_ASYM)
if ((fMsrHandler->GetMsrPlotList()->at(fPlotNumber).fPlotType == MSR_PLOT_ASYM) || (fMsrHandler->GetMsrPlotList()->at(fPlotNumber).fPlotType == MSR_PLOT_BNMR))
dataSet.dataRange->SetYRange(-0.4, 0.4);
// extract necessary range information
if ((fMsrHandler->GetMsrPlotList()->at(fPlotNumber).fTmin.size() == 0) &&
@ -2772,6 +2786,7 @@ void PMusrCanvas::HandleDataSet(UInt_t plotNo, UInt_t runNo, PRunData *data)
fXmax = end;
}
if ((fMsrHandler->GetMsrPlotList()->at(fPlotNumber).fPlotType == MSR_PLOT_ASYM) ||
(fMsrHandler->GetMsrPlotList()->at(fPlotNumber).fPlotType == MSR_PLOT_BNMR) ||
(fMsrHandler->GetMsrRunList()->at(runNo).IsLifetimeCorrected())) {
fYRangePresent = true;
fYmin = -0.4;
@ -2820,6 +2835,7 @@ void PMusrCanvas::HandleDataSet(UInt_t plotNo, UInt_t runNo, PRunData *data)
// make sure that for asymmetry the y-range is initialized reasonably
if ((fMsrHandler->GetMsrPlotList()->at(fPlotNumber).fPlotType == MSR_PLOT_ASYM) ||
(fMsrHandler->GetMsrPlotList()->at(fPlotNumber).fPlotType == MSR_PLOT_BNMR) ||
(fMsrHandler->GetMsrRunList()->at(runNo).IsLifetimeCorrected())) {
dataSet.dataRange->SetYRange(-0.4, 0.4);
}
@ -4679,7 +4695,13 @@ void PMusrCanvas::PlotData(Bool_t unzoom)
fDataTheoryPad->SetLogy(1);
// set x-axis label
fHistoFrame->GetXaxis()->SetTitle("Time (#mus)");
if (fPlotType == MSR_PLOT_BNMR ) {
// For BNMR/BNQR runs use seconds
fHistoFrame->GetXaxis()->SetTitle("time (s)");
} else {
fHistoFrame->GetXaxis()->SetTitle("time (#mus)");
}
// set y-axis label
TString yAxisTitle;
PMsrRunList *runList = fMsrHandler->GetMsrRunList();
@ -4701,6 +4723,9 @@ void PMusrCanvas::PlotData(Bool_t unzoom)
case MSR_PLOT_ASYM:
yAxisTitle = "Asymmetry";
break;
case MSR_PLOT_BNMR:
yAxisTitle = "Asymmetry";
break;
case MSR_PLOT_MU_MINUS:
yAxisTitle = "N(t) per bin";
break;
@ -4963,7 +4988,12 @@ void PMusrCanvas::PlotDifference(Bool_t unzoom)
fHistoFrame->SetBins(noOfPoints, dataXmin, dataXmax);
// set x-axis label
if (fPlotType == MSR_PLOT_BNMR) {
// For BNMR/BNQR runs use seconds
fHistoFrame->GetXaxis()->SetTitle("time (s)");
} else {
fHistoFrame->GetXaxis()->SetTitle("time (#mus)");
}
// set y-axis label
fHistoFrame->GetYaxis()->SetTitleOffset(1.3);
fHistoFrame->GetYaxis()->SetTitle("data-theory");
@ -6081,7 +6111,12 @@ void PMusrCanvas::PlotAverage(Bool_t unzoom)
// define x-axis title
TString xAxisTitle("");
if (fCurrentPlotView == PV_DATA) {
if (fPlotType == MSR_PLOT_BNMR) {
// For BNMR/BNQR runs use seconds
xAxisTitle = TString("time (s)");
} else {
xAxisTitle = TString("time (#mus)");
}
} else { // all the Fourier
if (fFourier.fUnits == FOURIER_UNIT_GAUSS) {
xAxisTitle = TString("Field (G)");
@ -6114,6 +6149,9 @@ void PMusrCanvas::PlotAverage(Bool_t unzoom)
case MSR_PLOT_ASYM:
yAxisTitle = "<asymmetry>";
break;
case MSR_PLOT_BNMR:
yAxisTitle = "<asymmetry>";
break;
case MSR_PLOT_MU_MINUS:
yAxisTitle = "<N(t)> per bin";
break;

File diff suppressed because it is too large Load Diff

View File

@ -3045,8 +3045,9 @@ Bool_t PRunDataHandler::ReadMudFile()
setup += TString(str) + TString("/");
if (TString(str) == "BNQR" || TString(str) == "BNMR") {
std::cerr << "PRunDataHandler::ReadMudFile: **INFORMATION** this run was performed on " << str << std::endl;
std::cerr << "PRunDataHandler::ReadMudFile: **INFORMATION** apply correction to time resolution" << std::endl;
// identified BNMR/BNQR, correct time resolution.
timeResMultiplier = 1.0e15;
timeResMultiplier = 1.0e9;
}
}
success = MUD_getApparatus( fh, str, sizeof(str) );
@ -3128,8 +3129,8 @@ Bool_t PRunDataHandler::ReadMudFile()
}
}
runData.SetTimeResolution(static_cast<Double_t>(timeResolution) * timeResMultiplier); // s -> ns
// An additional factor of 1e6 needed for bNMR
runData.SetTimeResolution(static_cast<Double_t>(timeResolution) * timeResMultiplier); // s -> ns or s -> ms for bNMR
// Other possibility:
// Check if it is a bNMR run and fix it or check if "timeres" line
// was introduced in the msr file

View File

@ -76,6 +76,12 @@ PRunListCollection::~PRunListCollection()
}
fRunAsymmetryRRFList.clear();
for (UInt_t i=0; i<fRunAsymmetryBNMRList.size(); i++) {
fRunAsymmetryBNMRList[i]->CleanUp();
fRunAsymmetryBNMRList[i]->~PRunAsymmetryBNMR();
}
fRunAsymmetryBNMRList.clear();
for (UInt_t i=0; i<fRunMuMinusList.size(); i++) {
fRunMuMinusList[i]->CleanUp();
fRunMuMinusList[i]->~PRunMuMinus();
@ -133,6 +139,11 @@ Bool_t PRunListCollection::Add(Int_t runNo, EPMusrHandleTag tag)
if (!fRunAsymmetryRRFList[fRunAsymmetryRRFList.size()-1]->IsValid())
success = false;
break;
case PRUN_ASYMMETRY_BNMR:
fRunAsymmetryBNMRList.push_back(new PRunAsymmetryBNMR(fMsrInfo, fData, runNo, tag));
if (!fRunAsymmetryBNMRList[fRunAsymmetryBNMRList.size()-1]->IsValid())
success = false;
break;
case PRUN_MU_MINUS:
fRunMuMinusList.push_back(new PRunMuMinus(fMsrInfo, fData, runNo, tag));
if (!fRunMuMinusList[fRunMuMinusList.size()-1]->IsValid())
@ -175,6 +186,8 @@ void PRunListCollection::SetFitRange(const TString fitRange)
fRunAsymmetryList[i]->SetFitRangeBin(fitRange);
for (UInt_t i=0; i<fRunAsymmetryRRFList.size(); i++)
fRunAsymmetryRRFList[i]->SetFitRangeBin(fitRange);
for (UInt_t i=0; i<fRunAsymmetryBNMRList.size(); i++)
fRunAsymmetryBNMRList[i]->SetFitRangeBin(fitRange);
for (UInt_t i=0; i<fRunMuMinusList.size(); i++)
fRunMuMinusList[i]->SetFitRangeBin(fitRange);
for (UInt_t i=0; i<fRunNonMusrList.size(); i++)
@ -201,6 +214,8 @@ void PRunListCollection::SetFitRange(const PDoublePairVector fitRange)
fRunAsymmetryList[i]->SetFitRange(fitRange);
for (UInt_t i=0; i<fRunAsymmetryRRFList.size(); i++)
fRunAsymmetryRRFList[i]->SetFitRange(fitRange);
for (UInt_t i=0; i<fRunAsymmetryBNMRList.size(); i++)
fRunAsymmetryBNMRList[i]->SetFitRange(fitRange);
for (UInt_t i=0; i<fRunMuMinusList.size(); i++)
fRunMuMinusList[i]->SetFitRange(fitRange);
for (UInt_t i=0; i<fRunNonMusrList.size(); i++)
@ -291,6 +306,27 @@ Double_t PRunListCollection::GetAsymmetryRRFChisq(const std::vector<Double_t>& p
return chisq;
}
//--------------------------------------------------------------------------
// GetAsymmetryBNMRChisq (public)
//--------------------------------------------------------------------------
/**
* <p>Calculates chi-square of <em>all</em> asymmetry BNMR runs of a msr-file.
*
* <b>return:</b>
* - chi-square of all asymmetry BNMR runs of the msr-file
*
* \param par fit parameter vector
*/
Double_t PRunListCollection::GetAsymmetryBNMRChisq(const std::vector<Double_t>& par) const
{
Double_t chisq = 0.0;
for (UInt_t i=0; i<fRunAsymmetryBNMRList.size(); i++)
chisq += fRunAsymmetryBNMRList[i]->CalcChiSquare(par);
return chisq;
}
//--------------------------------------------------------------------------
// GetMuMinusChisq (public)
//--------------------------------------------------------------------------
@ -380,6 +416,9 @@ Double_t PRunListCollection::GetSingleHistoChisqExpected(const std::vector<Doubl
case PRUN_ASYMMETRY_RRF:
expectedChisq = fRunAsymmetryRRFList[subIdx]->CalcChiSquareExpected(par);
break;
case PRUN_ASYMMETRY_BNMR:
expectedChisq = fRunAsymmetryBNMRList[subIdx]->CalcChiSquareExpected(par);
break;
case PRUN_MU_MINUS:
expectedChisq = fRunMuMinusList[subIdx]->CalcChiSquareExpected(par);
break;
@ -441,6 +480,9 @@ Double_t PRunListCollection::GetSingleRunChisq(const std::vector<Double_t>& par,
case PRUN_ASYMMETRY_RRF:
chisq = fRunAsymmetryRRFList[subIdx]->CalcChiSquare(par);
break;
case PRUN_ASYMMETRY_BNMR:
chisq = fRunAsymmetryBNMRList[subIdx]->CalcChiSquare(par);
break;
case PRUN_MU_MINUS:
chisq = fRunMuMinusList[subIdx]->CalcChiSquare(par);
break;
@ -540,6 +582,28 @@ Double_t PRunListCollection::GetAsymmetryRRFMaximumLikelihood(const std::vector<
return mlh;
}
//--------------------------------------------------------------------------
// GetAsymmetryBNMRMaximumLikelihood (public)
//--------------------------------------------------------------------------
/**
* <p> Since it is not clear yet how to handle asymmetry fits with max likelihood
* the chi square will be used!
*
* <b>return:</b>
* - chi-square of all asymmetry BNMR runs of the msr-file
*
* \param par fit parameter vector
*/
Double_t PRunListCollection::GetAsymmetryBNMRMaximumLikelihood(const std::vector<Double_t>& par) const
{
Double_t mlh = 0.0;
for (UInt_t i=0; i<fRunAsymmetryBNMRList.size(); i++)
mlh += fRunAsymmetryBNMRList[i]->CalcChiSquare(par);
return mlh;
}
//--------------------------------------------------------------------------
// GetMuMinusMaximumLikelihood (public)
//--------------------------------------------------------------------------
@ -721,6 +785,9 @@ UInt_t PRunListCollection::GetNoOfBinsFitted(const UInt_t idx) const
case PRUN_ASYMMETRY_RRF:
result = fRunAsymmetryRRFList[subIdx]->GetNoOfFitBins();
break;
case PRUN_ASYMMETRY_BNMR:
result = fRunAsymmetryBNMRList[subIdx]->GetNoOfFitBins();
break;
case PRUN_MU_MINUS:
result = fRunMuMinusList[subIdx]->GetNoOfFitBins();
break;
@ -760,6 +827,9 @@ UInt_t PRunListCollection::GetTotalNoOfBinsFitted() const
for (UInt_t i=0; i<fRunAsymmetryRRFList.size(); i++)
counts += fRunAsymmetryRRFList[i]->GetNoOfFitBins();
for (UInt_t i=0; i<fRunAsymmetryBNMRList.size(); i++)
counts += fRunAsymmetryBNMRList[i]->GetNoOfFitBins();
for (UInt_t i=0; i<fRunMuMinusList.size(); i++)
counts += fRunMuMinusList[i]->GetNoOfFitBins();
@ -898,6 +968,49 @@ PRunData* PRunListCollection::GetAsymmetry(UInt_t index, EDataSwitch tag)
return data;
}
//--------------------------------------------------------------------------
// GetAsymmetryBNMR (public)
//--------------------------------------------------------------------------
/**
* <p>Get a processed asymmetry from beta-NMR data set.
*
* <b>return:</b>
* - pointer to the run data set (processed data) if data set is found
* - null pointer otherwise
*
* \param index msr-file run index
* \param tag kIndex -> data at index, kRunNo -> data of given run no
*/
PRunData* PRunListCollection::GetAsymmetryBNMR(UInt_t index, EDataSwitch tag)
{
PRunData *data = 0;
switch (tag) {
case kIndex: // called from musrfit when dumping the data
if (index > fRunAsymmetryBNMRList.size()) {
std::cerr << std::endl << ">> PRunListCollection::GetAsymmetryBNMR(): **ERROR** index = " << index << " out of bounds";
std::cerr << std::endl;
return 0;
}
fRunAsymmetryBNMRList[index]->CalcTheory();
data = fRunAsymmetryBNMRList[index]->GetData();
break;
case kRunNo: // called from PMusrCanvas
for (UInt_t i=0; i<fRunAsymmetryBNMRList.size(); i++) {
if (fRunAsymmetryBNMRList[i]->GetRunNo() == index) {
data = fRunAsymmetryBNMRList[i]->GetData();
break;
}
}
break;
default: // error
break;
}
return data;
}
//--------------------------------------------------------------------------
// GetAsymmetryRRF (public)
//--------------------------------------------------------------------------

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@ -1,991 +0,0 @@
/****************************************************************************
** ui.h extension file, included from the uic-generated form implementation.
**
** If you want to add, delete, or rename functions or slots, use
** Qt Designer to update this file, preserving your code.
**
** You should not define a constructor or destructor in this file.
** Instead, write your code in functions called init() and destroy().
** These will automatically be called by theform's constructor and
** destructor.
*****************************************************************************/
# This file is part of MuSRFitGUI.
#
# MuSRFitGUI is free software: you can redistribute it and/or modify
# it under the terms of the GNU General Public License as published by
# the Free Software Foundation, either version 3 of the License, or
# (at your option) any later version.
#
# MuSRFitGUI is distributed in the hope that it will be useful,
# but WITHOUT ANY WARRANTY; without even the implied warranty of
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
# GNU General Public License for more details.
#
# You should have received a copy of the GNU General Public License
# along with MuSRFitGUI. If not, see <http://www.gnu.org/licenses/>.
#
# Copyright 2009 by Zaher Salman and the LEM Group.
# <zaher.salman@psi.ch>
void MuSRFitMenu::fileOpen()
{
my $file=Qt::FileDialog::getOpenFileName(
".",
"MSR Files (*.msr *.mlog)",
this,
"open file dialog",
"Choose a MSR file");
print "Selected file: $file\n";
# TODO: Possibly decipher the MSR file and setup the GUI accordingly
# Find run numbers, beamlines etc.
# Get theory block and understand it
# Get parameters list and update table
}
void MuSRFitMenu::fileSave()
{
my %All=CreateAllInput();
my $FILENAME=$All{"FILENAME"}.".msr";
my $file=Qt::FileDialog::getSaveFileName(
"$FILENAME",
"MSR Files (*.msr *.mlog)",
this,
"save file dialog",
"Choose a filename to save under");
# If the user gave a filename the copy to it
if ($file ne "") {
# TODO: check if the extension is correct, or add it.
if (-e $FILENAME) {
my $cmd="cp $FILENAME $file";
my $pid=system($cmd);
} else {
if ($file ne "") {
my $Warning = "Warning: No MSR file found yet!";
my $WarningWindow = Qt::MessageBox::information( this, "Warning",$Warning);
}
}
}
}
void MuSRFitMenu::fileChangeDir()
{
my $newdir=Qt::FileDialog::getExistingDirectory(
"",
this,
"get existing directory",
"Choose a directory",
1);
chdir ("$newdir");
}
void MuSRFitMenu::filePrint()
{
}
void MuSRFitMenu::fileExit()
{
my $Ans = Qt::MessageBox::question( this, "Quit?","Are you sure you want to quit?","&Yes","&No","",0,1);
if ($Ans==0) {
# Then quit
Qt::Application::exit( 0 );
}
# Otherwize go back
}
void MuSRFitMenu::parametersExport()
{
my %All=CreateAllInput();
# Add also a flag for header
$All{"Header"}=1;
my $FILENAME=$All{"FILENAME"}.".dat";
my $file=Qt::FileDialog::getSaveFileName(
"$FILENAME",
"Data Files (*.dat)",
this,
"export file dialog",
"Choose a filename to export to");
# If the user gave a filename the copy to it
if ($file ne "") {
my $Text = MSR::ExportParams(\%All);
open( DATF,q{>},"$file" );
print DATF $Text;
close(DATF);
}
}
void MuSRFitMenu::parametersAppend()
{
my %All=CreateAllInput();
# Add also a flag for header
$All{"Header"}=0;
my $FILENAME=$All{"FILENAME"}.".dat";
my $file=Qt::FileDialog::getOpenFileName(
"./",
"Data Files (*.dat)",
this,
"append file dialog",
"Choose a filename to append to");
# If the user gave a filename the copy to it
if ($file ne "") {
my $Text = MSR::ExportParams(\%All);
open( DATF,q{>>},"$file" );
print DATF $Text;
close(DATF);
}
}
void MuSRFitMenu::editUndo()
{
}
void MuSRFitMenu::editRedo()
{
}
void MuSRFitMenu::editCut()
{
}
void MuSRFitMenu::editCopy()
{
}
void MuSRFitMenu::editPaste()
{
}
void MuSRFitMenu::helpIndex()
{
}
void MuSRFitMenu::helpContents()
{
}
void MuSRFitMenu::helpAbout()
{
my $AboutText="
This is a GUI that uses the musrfit binary, developed by Andreas Suter,
to fit muSR spectra.
MuSRFitGUI is free software: you can redistribute it and/or modify
it under the terms of the GNU General Public License as published by
the Free Software Foundation, either version 3 of the License, or
(at your option) any later version.
MuSRFitGUI is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with MuSRFitGUI. If not, see <http://www.gnu.org/licenses/>.
Copyright 2009 by Zaher Salman and the LEM Group.
<zaher.salman\@psi.ch>
";
my $AboutWindow = Qt::MessageBox::information( this, "About MuSRFit GUI",$AboutText);
}
void MuSRFitform::CreateAllInput()
{
my %All=();
# From RUNS Tab
# Run data file
$All{"RunNumbers"} = RunNumbers->text;
$All{"RunFiles"} = RunFiles->text;
$All{"BeamLine"} = BeamLine->currentText;
$All{"RUNSType"} = ManualFile->isOn();
$All{"optionsFourier"} = optionsFourier->isOn();
$All{"optionsT0"} = optionsT0->isOn();
$All{"YEAR"} =YEAR->currentText;
if ($All{"YEAR"} eq "") {
# If year combobox is empty fill it up from 2004 up to current year
my ($second, $minute, $hour, $dayOfMonth, $month, $yearOffset, $dayOfWeek, $dayOfYear, $daylightSavings) = localtime();
my $current_year = 1900 + $yearOffset;
for (my $i=$current_year;$i>=2004;$i--) {
YEAR->insertItem($i,-1);
}
}
# Time range and BINS
$All{"Tis"} = Tis->text;
$All{"Tfs"} = Tfs->text;
$All{"BINS"} = BINS->text;
$All{"FitAsyType"} = FitAsyType->currentText;
$All{"LRBF"} = LRBF->text;
my @Hists = split(/,/, $All{"LRBF"} );
# Lifetime corrections in enabled/visible only for SingleHis fits
if ( $All{"FitAsyType"} eq "Asymmetry" ) {
ltc->setHidden(1);
}
elsif ( $All{"FitAsyType"} eq "SingleHist" ) {
ltc->setHidden(0);
}
# From Fitting Tab
# Plot range
$All{"Xi"}=Xi->text;
$All{"Xf"}=Xf->text;
$All{"Yi"}=Yi->text;
$All{"Yf"}=Yf->text;
$All{"ViewBin"}=ViewBin->text;
# Life time correction
if (ltc->isChecked()) {
$All{"ltc"}="y";
} else {
$All{"ltc"}="n";
}
# Minuit commands
if ( $All{"go"} eq "" ) {
$All{"go"}="PLOT";
}
# Get minimization process
$All{"Minimization"} = Minimization->currentText();
$All{"go"}=$All{"Minimization"};
# Get Error calculation process
$All{"ErrorCalc"} = ErrorCalc->currentText();
$All{"go"}=$All{"ErrorCalc"};
RunSelectionToggle();
my @RUNS = ();
if ($All{"RUNSType"} ) {
@RUNS = split( /,/, $All{"RunFiles"});
} else {
$All{"RunNumbers"} =~ s/[\ \.\~\/\&\*\[\;\>\<\^\$\(\)\`\|\]\'\@]/,/g;
@RUNS = split( /,/, $All{"RunNumbers"} );
}
# From MSR File Tab
$All{"TITLE"}= TITLE->text;
$All{"FILENAME"}= FILENAME->text;
# From Fourier Tab
$All{"FUNITS"}= FUnits->currentText;
$All{"FAPODIZATION"}= FApodization->currentText;
$All{"FPLOT"}= FPlot->currentText;
$All{"FPHASE"}=FPHASE->text;
# Fourier range
$All{"FrqMin"}=FrqMin->text;
$All{"FrqMax"}=FrqMax->text;
# Rotating reference frame parameters
$All{"RRFFrq"}=RRFFrq->text;
$All{"RRFPack"}=RRFPack->text;
$All{"RRFPhase"}=RRFPhase->text;
$All{"RRFUnits"}=RRFUnits->currentText;
# Get values of t0 and Bg/Data bins if given
my $NHist = 1;
foreach my $Hist (@Hists) {
foreach ("t0","Bg1","Bg2","Data1","Data2") {
my $Name = "$_$NHist";
$All{$Name}=child($Name)->text;
# TODO: If empty fill with defaults
if ($All{$Name} eq "") {
$All{$Name}=MSR::T0BgData($_,$Hist,$All{"BeamLine"});
child($Name)->setText($All{$Name});
}
}
$NHist++;
}
# Construct fittypes that can be understood by MSR.pm
my %FTs=(0,"Exponential",
1,"Gaussian",
2,"Stretch",
3,"ExponentialCos",
4,"GaussianCos",
5,"StretchCos",
6,"LDKTLF",
7,"GDKTLF",
8,"Background",
9,"LLFExp",
10,"GLFExp",
11,"LLFSExp",
12,"GLFSExp",
13,"MolMag",
14,"Meissner",
15,"None"
);
my $FT1=FitType1->currentItem;
my $FT2=FitType2->currentItem;
my $FT3=FitType3->currentItem;
$All{"FitType1"} = $FTs{$FT1};
$All{"FitType2"} = $FTs{$FT2};
$All{"FitType3"} = $FTs{$FT3};
my @FitTypes =();
my $FitType="";
foreach $FitType ($All{"FitType1"}, $All{"FitType2"}, $All{"FitType3"}) {
if ( $FitType ne "None" ) {
push( @FitTypes, $FitType );
}
}
# Also theory block and paramets list
my ($Full_T_Block,$Paramcomp_ref)= MSR::CreateTheory(@FitTypes);
$All{"Full_T_Block"}=$Full_T_Block;
$All{"Paramcomp_ref"}=$Paramcomp_ref;
my @Paramcomp = @$Paramcomp_ref;
# Functions block
$All{"FunctionsBlock"}=FunctionsBlock->text;
# and the associated theory block
$All{"Func_T_Block"}=TheoryBlock->text;
# Shared settings are detected here
$All{"EnableSharing"} = buttonGroupSharing->isChecked();
my $Shared = 0;
my $PCount =0;
my $Component=1;
foreach $FitType (@FitTypes) {
my $Parameters=$Paramcomp[$Component-1];
my @Params = split( /\s+/, $Parameters );
if ( $Component == 1 && $All{"FitAsyType"} eq "Asymmetry" ) {
unshift( @Params, "Alpha" );
}
elsif ( $Component == 1 && $All{"FitAsyType"} eq "SingleHist" ) {
unshift( @Params, ( "No", "NBg" ) );
}
# This is the counter for parameters of this component
my $NP=1;
$Shared = 0;
# Change state/label of parameters
foreach my $Param (@Params) {
my $Param_ORG = $Param;
# TODO: I need to take care of single hist fits here
if ( $All{"FitAsyType"} eq "SingleHist" ) {
$Param=$Param.$Hists[0];
}
if ( $#FitTypes != 0 && ( $Param ne "Alpha" && $Param ne "No" && $Param ne "NBg" ) ){
$Param = join( "", $Param, "_", $Component);
}
# Is there any point of sharing, multiple runs?
if ( $#RUNS == 0 && $All{"FitAsyType"} eq "Asymmetry") {
$Shared = 1;
}
elsif ( $#RUNS == 0 && $#Hists == 0 && $All{"FitAsyType"} eq "SingleHist" ) {
$Shared = 1;
} else {
# Check if shared or not, construct name of checkbox, find its handle and then
# check if it is checked
my $ChkName="ShParam_".$Component."_".$NP;
my $ChkBx = child($ChkName);
$Shared = $ChkBx->isChecked();
}
$All{"Sh_$Param"}=$Shared;
$NP++;
}
#Loop on parameters
$Component++;
}
# Loop on components
# Done with shared parameters detecting
# Construct a default filename if empty
if ( $All{"FILENAME"} eq "" && !$All{"RUNSType"}) {
$All{"FILENAME"}=$RUNS[0]."_".$All{"BeamLine"}."_".$All{"YEAR"};
if ($All{"BeamLine"} eq "LEM (PPC)") {
$All{"FILENAME"}=$RUNS[0]."_LEM_".$All{"YEAR"};
}
} else {
$All{"FILENAME"}="TMP";
}
# This has to be at the end of CreateAll
my %PTable=MSR::PrepParamTable(\%All);
# Setup the table with the right size
my $NParam=scalar keys( %PTable );
# Read initial values of paramets from tabel
my $erradd = "d";
my $minadd = "_min";
my $maxadd = "_max";
my $Header=InitParamTable->verticalHeader();
# TODO: Should not go over all rows, only on parameters.
if ($NParam > 0) {
for (my $i=0;$i<$NParam;$i++) {
# Take label of row, i.e. name of parameter
my $Param=$Header->label($i);
# Then take the value, error, max and min (as numbers)
$All{"$Param"}=1.0*InitParamTable->text($i,0);
$All{"$erradd$Param"}=1.0*InitParamTable->text($i,1);
$All{"$Param$minadd"}=1.0*InitParamTable->text($i,2);
$All{"$Param$maxadd"}=1.0*InitParamTable->text($i,3);
}
}
# Return Hash with all important values
return %All;
}
void MuSRFitform::CallMSRCreate()
{
use MSR;
my %All=CreateAllInput();
# Check if the option for checking for existing files is selected
my $FileExistCheck= FileExistCheck->isOn();
my $FILENAME=$All{"FILENAME"}.".msr";
my $Answer=0;
if ($All{"RunNumbers"} ne "" || $All{"RunFiles"} ne "") {
if ( $FileExistCheck==1 ) {
if (-e $FILENAME) {
# Warning: MSR file exists
# my $Warning = "Warning: MSR file $FILENAME Already exists!\nIf you continue it will overwriten.";
my $Warning = "Warning: MSR file $FILENAME Already exists!\nDo you want to overwrite it?";
# my $WarningWindow = Qt::MessageBox::information( this, "Warning",$Warning);
# $Answer =1,0 for yes and no
$Answer= Qt::MessageBox::warning( this, "Warning",$Warning, "&No", "&Yes", undef, 1,1);
}
} else {
# Just overwrite file
$Answer=1;
}
if ($Answer) {
if ( $All{"FitAsyType"} eq "Asymmetry" ) {
my ($Full_T_Block,$Paramcomp_ref)= MSR::CreateMSR(\%All);
}
elsif ( $All{"FitAsyType"} eq "SingleHist" ) {
my ($Full_T_Block,$Paramcomp_ref)= MSR::CreateMSRSingleHist(\%All);
}
UpdateMSRFileInitTable();
}
}
return $Answer;
}
void MuSRFitform::UpdateMSRFileInitTable()
{
my %All=CreateAllInput();
my $FILENAME=$All{"FILENAME"};
open (MSRF,q{<},"$FILENAME.msr" );
my @lines = <MSRF>;
close(IFILE);
textMSROutput->setText("");
foreach my $line (@lines) {
textMSROutput->append("$line");
}
(my $TBlock_ref, my $FPBlock_ref)=MSR::ExtractBlks(@lines);
my @FPBloc = @$FPBlock_ref;
my $PCount=0;
foreach my $line (@FPBloc) {
$PCount++;
my @Param=split(/\s+/,$line);
# Depending on how many elements in @Param determine what they mean
# 0th element is empty (always)
# 1st element is the order (always)
# 2nd element is the name (always)
# 3rd element is the value (always)
# 4th element can be taken as step/error (always)
# 5th element can be
# if it is last element or there are two more = positive error, check $#Param=5/7
# if there is only one more = minimum, check $#Param=6
# To summarize, check the value of $#Param
my $value=1.0*$Param[3];
my $error = 1.0*$Param[4];
my $minvalue=0.0;
my $maxvalue=0.0;
if ($#Param == 4) {
$minvalue=0.0;
$maxvalue=0.0;
}
elsif ($#Param == 6) {
$minvalue=1.0*$Param[5];
$maxvalue=1.0*$Param[6];
}
elsif ($#Param == 5 || $#Param == 7) {
$minvalue=1.0*$Param[6];
$maxvalue=1.0*$Param[7];
}
# Now update the initialization tabel
InitParamTable->setText($PCount-1,0,$value);
InitParamTable->setText($PCount-1,1,$error);
InitParamTable->setText($PCount-1,2,$minvalue);
InitParamTable->setText($PCount-1,3,$maxvalue);
# Set bg color to mark different runs
}
return;
}
void MuSRFitform::ActivateT0Hists()
{
my %All=CreateAllInput();
my @Hists = split(/,/, $All{"LRBF"} );
my $HistBox = "";
for (my $iHist=1; $iHist<=4; $iHist++) {
$HistBox="groupHist$iHist";
my $HistBoxHandle = child($HistBox);
if ($iHist<=$#Hists+1) {
# Activate this histogram box
$HistBoxHandle->setHidden(0);
$HistBoxHandle->setEnabled(1);
$HistBoxHandle->setTitle("Hist # $Hists[$iHist-1]");
} else {
# Deactivate this histogram box
$HistBoxHandle->setHidden(1);
$HistBoxHandle->setEnabled(0);
}
}
# TODO: Set default values
}
void MuSRFitform::ActivateShComp()
{
my %All=CreateAllInput();
my @RUNS = split( /,/, $All{"RunNumbers"} );
# Hide all sharing components
SharingComp1->setHidden(1);
SharingComp2->setHidden(1);
SharingComp3->setHidden(1);
SharingComp1->setEnabled(0);
SharingComp2->setEnabled(0);
SharingComp3->setEnabled(0);
my @FitTypes =();
foreach my $FitType ($All{"FitType1"}, $All{"FitType2"}, $All{"FitType3"}) {
if ( $FitType ne "None" ) {
push( @FitTypes, $FitType );
}
}
# Get number of parameters to determine the size of the table
my ($Full_T_Block,$Paramcomp_ref)= MSR::CreateTheory(@FitTypes);
# For now the line below does not work. Why?
# my $Paramcomp_ref=$All{"Paramcomp_ref"};
my @Paramcomp = @$Paramcomp_ref;
my $Full_T_Block= $All{"Full_T_Block"};
# Possible to share only if sharing is enabled altogether
my $EnableSharing = $All{"EnableSharing"};
if ($EnableSharing) {
my $Component=1;
foreach my $FitType (@FitTypes) {
my $Parameters=$Paramcomp[$Component-1];
my @Params = split( /\s+/, $Parameters );
if ( $Component == 1 && $All{"FitAsyType"} eq "Asymmetry" ) {
unshift( @Params, "Alpha" );
}
elsif ( $Component == 1 && $All{"FitAsyType"} eq "SingleHist" ) {
unshift( @Params, ( "No", "NBg" ) );
}
# Make the component appear first (only if we have multiple runs)
my $ShCompG="SharingComp".$Component;
my $ShCG = child($ShCompG);
if ($#RUNS>0) {
$ShCG->setHidden(0);
$ShCG->setEnabled(1);
}
my $CompShLabel = "Comp".$Component."ShLabel";
my $CompShL = child($CompShLabel);
$CompShL->setText($All{"FitType$Component"});
# Change state/label of parameters
for (my $i=1; $i<=9;$i++) {
my $ParamChkBx="ShParam_".$Component."_".$i;
my $ChkBx = child($ParamChkBx);
if ($Params[$i-1] ne "") {
$ChkBx->setHidden(0);
$ChkBx->setEnabled(1);
$ChkBx ->setText($Params[$i-1]);
} else {
$ChkBx->setHidden(1);
}
}
$Component++;
}
}
}
void MuSRFitform::InitializeTab()
{
my %All=CreateAllInput();
InitParamTable->setLeftMargin(100);
my $NRows = InitParamTable->numRows();
# Remove any rows in table
if ($NRows > 0) {
for (my $i=0;$i<$NRows;$i++) {
# TODO: Better remove the row rather than hide it.
InitParamTable->hideRow($i);
# InitParamTable->removeRow($i);
}
}
my %PTable=MSR::PrepParamTable(\%All);
# Setup the table with the right size
my $NParam=scalar keys( %PTable );
if ($NParam>$NRows) {
InitParamTable->setNumRows($NParam);
}
# Fill the table with labels and values of parametr
for (my $PCount=0;$PCount<$NParam;$PCount++) {
my ($Param,$value,$error,$minvalue,$maxvalue,$RUN) = split(/,/,$PTable{$PCount});
# Now make sure we have no nans
if ($error eq "nan") { $error=0.1;}
# If you use this then reading the parameters from the table is a problem
# You need to extract the correct parameter name from the row label
# InitParamTable->verticalHeader()->setLabel( $PCount,"$RUN: $Param");
InitParamTable->verticalHeader()->setLabel( $PCount,"$Param");
InitParamTable->showRow($PCount);
InitParamTable->setText($PCount,0,$value);
InitParamTable->setText($PCount,1,$error);
InitParamTable->setText($PCount,2,$minvalue);
InitParamTable->setText($PCount,3,$maxvalue);
}
}
void MuSRFitform::TabChanged()
{
# TODO: First check if there are some runs given, otherwise disbale
my %All=CreateAllInput();
# First make sure we have sharing initialized
ActivateShComp();
# Here we need to apply sharing if selected...
InitializeTab();
UpdateMSRFileInitTable();
# And also setup T0 and Bg bins
ActivateT0Hists();
# Initialize FUNCTIONS block only if it has not been initialized yet
if ($All{"Func_T_Block"} eq "" ) {
InitializeFunctions();
}
}
void MuSRFitform::GoFit()
{
my %All=CreateAllInput();
# Check here is the number of histograms makes sense
# other wise give error.
my @Hists = split( /,/, $All{"LRBF"} );
if ($All{"FitAsyType"} eq "Asymmetry" && $#Hists != 1) {
# we have a problem here send error message
my $Warning = "Error: The number of histograms should be 2 for an asymmetry fit!";
my $WarningWindow = Qt::MessageBox::information( this, "Error",$Warning);
} else {
musrfit_tabs->setCurrentPage(1);
my $Answer=CallMSRCreate();
if ($Answer) {
my $FILENAME=$All{"FILENAME"}.".msr";
if (-e $FILENAME) {
my $cmd="musrfit -t $FILENAME";
my $pid = open(FTO,"$cmd 2>&1 |");
while (<FTO>) {
FitTextOutput->append("$_");
}
close(FTO);
$cmd="musrview $FILENAME &";
$pid = system($cmd);
} else {
FitTextOutput->append("Cannot find MSR file!");
}
FitTextOutput->append("-----------------------------------------------------------------------------------------------------------------------------");
# update MSR File tab and initialization table
UpdateMSRFileInitTable();
}
}
return;
}
void MuSRFitform::GoPlot()
{
my %All=CreateAllInput();
# Check here is the number of histograms makes sense
# other wise give error.
my @Hists = split( /,/, $All{"LRBF"} );
if ($All{"FitAsyType"} eq "Asymmetry" && $#Hists != 1) {
# we have a problem here send error message
my $Warning = "Error: The number of histograms should be 2 for an asymmetry fit!";
my $WarningWindow = Qt::MessageBox::information( this, "Error",$Warning);
} else {
my $Answer=CallMSRCreate();
my $FILENAME=$All{"FILENAME"}.".msr";
if ($Answer) {
if (-e $FILENAME) {
my $cmd="musrview $FILENAME &";
my $pid = system($cmd);
} else {
FitTextOutput->append("Cannot find MSR file!");
FitTextOutput->append("-----------------------------------------------------------------------------------------------------------------------------");
}
}
}
return;
}
void MuSRFitform::ShowMuSRT0()
{
my %All=CreateAllInput();
musrfit_tabs->setCurrentPage(6);
# Create MSR file and then run musrt0
my $Answer=CallMSRCreate();
if ($Answer) {
my $FILENAME=$All{"FILENAME"}.".msr";
if (-e $FILENAME) {
my $cmd="musrt0 $FILENAME &";
my $pid = system($cmd);
t0Update->setEnabled(1)
} else {
print STDERR "Cannot find MSR file!\n";
}
}
return;
}
void MuSRFitform::T0Update()
{
my %All = CreateAllInput();
my @Hists = split(/,/, $All{"LRBF"} );
# Get values of t0 and Bg/Data bins if given
my $NHist = 1;
foreach my $Hist (@Hists) {
foreach ("t0","Bg1","Bg2","Data1","Data2") {
my $Name = "$_$NHist";
my $tmp=MSR::T0BgData($_,$Hist,$All{"BeamLine"});
child($Name)->setText($tmp);
}
$NHist++
}
}
void MuSRFitform::RunSelectionToggle()
{
my $ManualFile= ManualFile->isOn();
if ($ManualFile) {
# Manual RUN selection
RUNSMan->setEnabled(1);
RUNSMan->setHidden(0);
RunNumbers->setText("");
RUNSAuto->setEnabled(0);
RUNSAuto->setHidden(1);
} else {
# Auto RUN selection
RUNSMan->setEnabled(0);
RUNSMan->setHidden(1);
RunFiles->setText("");
RUNSAuto->setEnabled(1);
RUNSAuto->setHidden(0);
}
# Also use this for other options
# Fourier toggle
my $Fourier=optionsFourier->isOn();
if ($Fourier) {
# Fourier tab visible
# musrfit_tabs->addTab(FourierPage,"Fourier");
# musrfit_tabs->showPage(FourierPage);
# FourierPage->hide();
} else {
# Fourier tab invisible
# musrfit_tabs->removePage(FourierPage);
# FourierPage->show();
}
}
void MuSRFitform::fileBrowse()
{
my $RunFiles=RunFiles->text();
print "Runs:$RunFiles\n";
my $files_ref=Qt::FileDialog::getOpenFileNames(
"Data files (*.root *.bin)",
"./",
this,
"open files dialog",
"Select one or more files to fit");
my @files = @$files_ref;
if ($RunFiles eq "") {
# We started with an empty list
$RunFiles=join(",",@files);
} else {
# Add files to existing list
$RunFiles=join(",",$RunFiles,@files);
}
RunFiles->setText($RunFiles);
}
void MuSRFitform::AppendToFunctions()
{
my $ParName=CParamsCombo->currentText();
my $Full_T_Block=TheoryBlock->text;
my $Constraint=ConstraintLine->text;
# Then clear the text
ConstraintLine->setText("");
# Check how many constraints (lines) in FUNCTIONS Block
my $i=FunctionsBlock->lines();
my $ConstLine="fun$i = $Constraint\n";
FunctionsBlock->append($ConstLine);
# Replace parameter in theory block with fun$i
$Full_T_Block=~ s/$ParName/fun$i/;
TheoryBlock->setText($Full_T_Block);
}
void MuSRFitform::InitializeFunctions()
{
my %All=CreateAllInput();
my @RUNS = split( /,/, $All{"RunNumbers"} );
my @FitTypes =();
foreach my $FitType ($All{"FitType1"}, $All{"FitType2"}, $All{"FitType3"}) {
if ( $FitType ne "None" ) {
push( @FitTypes, $FitType );
}
}
# Get number of parameters to determine the size of the table
my ($Full_T_Block,$Paramcomp_ref)= MSR::CreateTheory(@FitTypes);
my @Paramcomp = @$Paramcomp_ref;
my $Full_T_Block= $All{"Full_T_Block"};
# Initialize Parameters List in function block (constraints).
my $ParametersList="";
ParametersList->setText("");
# Counter for function block (with out Alpha etc.)
my $ParCount=0;
CParamsCombo->clear();
# Possibly use the parameters block to axtract names for the dropdown menu
# this makes sense if we can use fun in map line. Check!
my $Component=1;
foreach my $FitType (@FitTypes) {
my $Parameters=$Paramcomp[$Component-1];
my @Params = split( /\s+/, $Parameters );
# Alpha, No and NBg are counted in the parameters
if ( $Component == 1 && $All{"FitAsyType"} eq "Asymmetry" ) {
unshift( @Params, "Alpha" );
}
elsif ( $Component == 1 && $All{"FitAsyType"} eq "SingleHist" ) {
unshift( @Params, ( "No", "NBg" ) );
}
# Add list to the constraints drop down menu
for (my $i=1; $i<=9;$i++) {
my $CParam = $Params[$i-1]."_".$Component;
if ($Params[$i-1] ne "" ) {
if ($Params[$i-1] ne "Alpha" && $Params[$i-1] ne "No" && $Params[$i-1] ne "NBg") {
CParamsCombo->insertItem($CParam,-1);
$Full_T_Block=~ s/\b$Params[$i-1]\b/$CParam/;
}
# also enumerate the parameters as should be used in the FUNCTIONS Block
$ParCount++;
$ParametersList=$ParametersList."$CParam \t is \t par$ParCount\n";
ParametersList->setText($ParametersList);
}
}
$Component++;
}
# Set theory block in Constraints
TheoryBlock->setText($Full_T_Block);
# Then clear the text
ConstraintLine->setText("");
FunctionsBlock->setText("");
}
void MuSRFitform::optionConfigure()
{
use Customize;
my $Customize = Qt::Dialog(this);
my $w = Customize;
$w->setModal(1);
$w->exec();
# $Customize->setMainWidget($w);
# $w->show;
# exit $Customize->exec;
}
void MuSRFitform::t0UpdateClicked()
{
# Read MSR file and get new values of t0,Bg and Data
my %All=CreateAllInput();
my $FILENAME=$All{"FILENAME"};
open (MSRF,q{<},"$FILENAME.msr" );
my @lines = <MSRF>;
close(IFILE);
my @T0s = grep {/t0 /} @lines;
my @Bgs = grep {/background /} @lines;
my @Datas = grep {/data /} @lines;
my @Hists = split(/,/, $All{"LRBF"} );
my $NHist = $#Hists+1;
print "Histograms: $NHist\n";
my $FinHist = 1;
# First T0s
while ($FinHist) {
my $counter=0;
(my $tmp,my @SplitT0) = split( /\s+/, $T0s[$counter]);
(my $tmp,my @SplitBg) = split( /\s+/, $Bgs[$counter]);
(my $tmp,my @SplitData) = split( /\s+/, $Datas[$counter]);
if ($#SplitBg>0) {
foreach (@SplitBg) {
print $_."\n";
}
}
$counter++;
if ($counter>=$#Bgs) {$FinHist=0;}
}
# Finally, disable the update button
t0Update->setEnabled(0);
# t0Update->setText("musrt0")
}

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@ -1,96 +0,0 @@
DATA
592.75 0.0466642055 0.00075601151
693.25 0.042699595 0.0007136273
793.75 0.03943051 0.000679583922
894.25 0.0366291886 0.000652378784
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1396.75 0.0301227967 0.000569861788
1497.25 0.0289808195 0.000559611024
1597.75 0.0284020831 0.000550685264
1698.25 0.0272996592 0.000542785334
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1999.75 0.0252476607 0.000524276201
2100.25 0.0252439822 0.00049508141
2200.75 0.0244494569 0.000514789454
2301.25 0.0248826473 0.000510792766
2401.75 0.0252364689 0.000507093213
2502.25 0.024077753 0.000503959631
2602.75 0.0239705744 0.000501170092
2703.25 0.023648613 0.000498351823
2803.75 0.0236132062 0.000496113677
2904.25 0.0232728359 0.000494038794
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3406.75 0.022514855 0.000485776619
3507.25 0.0232919509 0.000484617162
3607.75 0.0227762445 0.000483435077
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8733.25 8.36732E-05 0.00343974064
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8934.25 0.0059381551 0.00373021006
9034.75 -0.0014588358 0.0038926573
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9336.25 -0.00212622165 0.00439704849
9436.75 -0.00477056006 0.0045911195
9537.25 -0.00229735693 0.00479087708
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10039.75 -0.0323936833 0.0181186246

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@ -1,21 +1,20 @@
# Run Numbers: 1111
LaAlO3, SLR, 30G, 150K, Bias=23 kV, Ix=0A, Iy=+3A, aligned, beam on=1s
###############################################################
FITPARAMETER
###############################################################
# No Name Value Err Min Max
1 Alpha 1.11587 0.00038 none
2 Asy 0.0570 0.0011 none
1 Alpha 1.11592 0.00035 none
2 Asy 0.05868 0.00091 none 0 0.2
3 T 1 0 none
4 Rlx 1.015 0.023 none
4 Rlx 1.142 0.023 none 0 15000
5 One 1 0 none
6 Bet -1.052 0.027 none
6 FlHel -1.048 0.022 none -2 0
###############################################################
THEORY
###############################################################
asymmetry fun1
userFcn .libs/libBNMR.so ExpRlx 3 4
userFcn libBNMR.so ExpRlx 3 4
###############################################################
FUNCTIONS
@ -28,12 +27,11 @@ fittype 2 (asymmetry fit)
alpha 1
forward 3
backward 4
data 11 800 11 800
#backgr.fix 0
data 11 910 11 910
background 1 9 1 9 # estimated bkg: 8.0000 / 9.6250
t0 10.0 10.0
map 2 5 0 0 0 0 0 0 0 0
fit 0.5 8
fit 0.2 9
packing 5
RUN 045674 BNMR TRIUMF MUD (name beamline institute data-file-format)
@ -41,15 +39,13 @@ fittype 2 (asymmetry fit)
alpha 1
forward 5
backward 6
data 11 800 11 800
#backgr.fix 0
data 11 910 11 910
background 1 9 1 9 # estimated bkg: 11.6250 / 15.6250
t0 10.0 10.0
map 2 6 0 0 0 0 0 0 0 0
fit 0.5 8
fit 0.2 9
packing 5
###############################################################
COMMANDS
MINIMIZE
@ -68,9 +64,9 @@ FOURIER
units MHz # units either 'Gauss', 'Tesla', 'MHz', or 'Mc/s'
fourier_power 12
apodization STRONG # NONE, WEAK, MEDIUM, STRONG
plot POWER # REAL, IMAG, REAL_AND_IMAG, POWER, PHASE
plot POWER # REAL, IMAG, REAL_AND_IMAG, POWER, PHASE, PHASE_OPT_REAL
phase 8
#range FRQMIN FRQMAX
###############################################################
STATISTIC --- 2015-04-14 11:00:19
chisq = 399.5, NDF = 290, chisq/NDF = 1.377736
STATISTIC --- 2019-05-03 17:05:58
chisq = 566.6, NDF = 346, chisq/NDF = 1.637584

View File

@ -1,45 +1,53 @@
Title
LaAlO3, SLR, 30G, 150K, Bias=23 kV, Ix=0A, Iy=+3A, aligned, beam on=1s
###############################################################
FITPARAMETER
# Nr. Name Value Step Pos_Error Boundaries
1 Asy1 0.0812706 0.00149848 none 0 none
2 T 4000 0 none 0 none
3 Lam1 0.00239816 6.05947e-05 none 0 none
###############################################################
# No Name Value Err Min Max
1 Alpha 1 0 none
2 Asy 0.05992 0.00063 none 0 0.2
3 T 1 0 none
4 Rlx 1.143 0.023 none 0 100
###############################################################
THEORY
asymmetry 1
userFcn /usr/local/lib/libBNMR.so ExpRlx 2 3
###############################################################
asymmetry 2
userFcn libBNMR ExpRlx 3 4
###############################################################
RUN 45377 MUE4 PSI ASCII (name beamline institute data-file-format)
fittype 8 (non muSR fit)
RUN 045674 BNMR TRIUMF MUD (name beamline institute data-file-format)
fittype 5 (beta-NMR fit)
alpha 1
forward 3 5
backward 4 6
data 11 910 11 910
background 1 9 1 9 # estimated bkg: 8.0000 / 9.6250
t0 10.0 10.0 10.0 10.0
map 0 0 0 0 0 0 0 0 0 0
xy-data 1 2
fit 0.00 8000.00
packing 1
fit 0.2 9
packing 5
###############################################################
COMMANDS
STRATEGY 1
MINIMIZE
#MINOS
HESSE
SAVE
END RETURN
###############################################################
PLOT 8 (non muSR plot)
PLOT 5 (beta-NMR asymmetry plot)
runs 1
range 0.00 8000.00
use_fit_ranges
view_packing 10
###############################################################
FOURIER
units MHz # units either 'Gauss', 'MHz', or 'Mc/s'
units MHz # units either 'Gauss', 'Tesla', 'MHz', or 'Mc/s'
fourier_power 12
apodization STRONG # NONE, WEAK, MEDIUM, STRONG
plot POWER # REAL, IMAG, REAL_AND_IMAG, POWER, PHASE
phase 8.50
plot POWER # REAL, IMAG, REAL_AND_IMAG, POWER, PHASE, PHASE_OPT_REAL
phase 8
#range FRQMIN FRQMAX
###############################################################
STATISTIC --- 2010-09-02 17:44:20
chisq = 186.322493286053, NDF = 72, chisq/NDF = 2.5878124067507362
STATISTIC --- 2019-05-03 17:06:29
chisq = 419.1, NDF = 173, chisq/NDF = 2.422357

73
src/external/libBNMR/SExpRlx-hel.msr vendored Normal file
View File

@ -0,0 +1,73 @@
LaAlO3, SLR, 30G, 150K, Bias=23 kV, Ix=0A, Iy=+3A, aligned, beam on=1s
###############################################################
FITPARAMETER
###############################################################
# No Name Value Err Min Max
1 Alpha 1.11589 0.00037 none
2 Asy 0.1121 0.0094 none 0 0.2
3 T 1 0 none
4 Rlx 4.12 0.87 none 0 15000
5 Beta 0.434 0.031 none 0.3 2
6 One 1 0 none
7 FlHel -1.048 0.023 none -2 0
###############################################################
THEORY
###############################################################
asymmetry fun1
userFcn libBNMR SExpRlx 3 4 5
###############################################################
FUNCTIONS
###############################################################
fun1 = 0.5 * map1 * map2
###############################################################
RUN 045674 BNMR TRIUMF MUD (name beamline institute data-file-format)
fittype 2 (asymmetry fit)
alpha 1
forward 3
backward 4
data 11 1000 11 1000
background 1 9 1 9 # estimated bkg: 8.0000 / 9.6250
t0 10.0 10.0
map 2 6 0 0 0 0 0 0 0 0
fit 0.2 9
packing 5
RUN 045674 BNMR TRIUMF MUD (name beamline institute data-file-format)
fittype 2 (asymmetry fit)
alpha 1
forward 5
backward 6
data 11 1000 11 1000
background 1 9 1 9 # estimated bkg: 11.6250 / 15.6250
t0 10.0 10.0
map 2 7 0 0 0 0 0 0 0 0
fit 0.2 9
packing 5
###############################################################
COMMANDS
MINIMIZE
HESSE
SAVE
###############################################################
PLOT 2 (asymmetry plot)
runs 1 2
use_fit_ranges
view_packing 10
###############################################################
FOURIER
units MHz # units either 'Gauss', 'Tesla', 'MHz', or 'Mc/s'
fourier_power 12
apodization STRONG # NONE, WEAK, MEDIUM, STRONG
plot POWER # REAL, IMAG, REAL_AND_IMAG, POWER, PHASE, PHASE_OPT_REAL
phase 8
#range FRQMIN FRQMAX
###############################################################
STATISTIC --- 2019-05-01 11:29:06
chisq = 358.6, NDF = 345, chisq/NDF = 1.039300

View File

@ -1,46 +1,54 @@
Title
LaAlO3, SLR, 30G, 150K, Bias=23 kV, Ix=0A, Iy=+3A, aligned, beam on=1s
###############################################################
FITPARAMETER
# Nr. Name Value Step Pos_Error Boundaries
1 Asy1 0.262789 0.0465582 none 0 none
2 T 4000 0 none 0 none
3 Lam1 0.0233569 0.0094885 none 0 none
4 Bet1 0.399259 0.0353915 none 0 none
###############################################################
# No Name Value Err Min Max
1 Alpha 0.9 1.0 none
2 Asy 0.115 0.012 none 0 0.2
3 T 1 0 none
4 Rlx 4.16 0.88 none 0 100
5 Beta 0.433 0.031 none 0.3 2
###############################################################
THEORY
asymmetry 1
userFcn /usr/local/lib/libBNMR.so SExpRlx 2 3 4
###############################################################
asymmetry 2
userFcn libBNMR SExpRlx 3 4 5
###############################################################
RUN 45377 MUE4 PSI ASCII (name beamline institute data-file-format)
fittype 8 (non muSR fit)
RUN 045674 BNMR TRIUMF MUD (name beamline institute data-file-format)
fittype 5 (beta-NMR fit)
alpha 1
forward 3 5
backward 4 6
data 11 910 11 910
background 1 9 1 9 # estimated bkg: 8.0000 / 9.6250
t0 10.0 10.0 10.0 10.0
map 0 0 0 0 0 0 0 0 0 0
xy-data 1 2
fit 0.00 8000.00
packing 1
fit 0.2 9
packing 5
###############################################################
COMMANDS
STRATEGY 1
MINIMIZE
#MINOS
HESSE
SAVE
END RETURN
###############################################################
PLOT 8 (non muSR plot)
PLOT 5 (beta-NMR asymmetry plot)
runs 1
range 0.00 8000.00
use_fit_ranges
view_packing 10
###############################################################
FOURIER
units MHz # units either 'Gauss', 'MHz', or 'Mc/s'
units MHz # units either 'Gauss', 'Tesla', 'MHz', or 'Mc/s'
fourier_power 12
apodization STRONG # NONE, WEAK, MEDIUM, STRONG
plot POWER # REAL, IMAG, REAL_AND_IMAG, POWER, PHASE
phase 8.50
plot POWER # REAL, IMAG, REAL_AND_IMAG, POWER, PHASE, PHASE_OPT_REAL
phase 8
#range FRQMIN FRQMAX
###############################################################
STATISTIC --- 2010-09-02 17:51:10
chisq = 93.71265965991455, NDF = 71, chisq/NDF = 1.319896614928374
STATISTIC --- 2019-05-03 17:07:01
chisq = 210.2, NDF = 171, chisq/NDF = 1.229344

View File

@ -31,55 +31,50 @@
#include "TBNMR.h"
#define tau_Li 1210
#define gamma_Li 6.3018 // In units kHz/mT
#define PI 3.14159265358979323846
#define TWOPI 6.28318530717958647692
ClassImp(ExpRlx) // for the ROOT-dictionary
ClassImp(SExpRlx)
double ExpRlx::operator()(double x, const std::vector<double> &par) const {
assert(par.size()==2); // make sure the number of parameters handed to the function is correct
// par[0] time of beam off
// par[1] is the relaxation rate
// par[0] time of beam on (pulse length) in seconds
// par[1] is the relaxation rate in 1/s
double tau_p;
double y;
tau_p = (tau_Li/(1.+par[1]*tau_Li));
// x should be in seconds, otherwise it should be rescaled here
if ( x <= par[0] && x >= 0) {
y=(tau_p/tau_Li)*(1-exp(-x/tau_p))/(1-exp(-x/tau_Li));
return (tau_p/tau_Li)*(1-exp(-x/tau_p))/(1-exp(-x/tau_Li));
} else if ( x > par[0] ){
y=(tau_p/tau_Li)*(1-exp(-par[0]/tau_p))/(1-exp(-par[0]/tau_Li))*exp(-par[1]*(x-par[0]));
} else {
y = 0;
}
return y;
return (tau_p/tau_Li)*(1-exp(-par[0]/tau_p))/(1-exp(-par[0]/tau_Li))*exp(-par[1]*(x-par[0]));
}
return 0;
}
//initialize Integrators
TF1 SExpRlx::sexp1=TF1("sexp", "exp(-([0]-x)/[3])*exp(-pow(([1]*([0]-x)),[2]))", 0.0, 20000.0);
TF1 SExpRlx::sexp2=TF1("sexp", "exp(-([3]-x)/[4])*exp(-pow(([1]*([0]-x)),[2]))", 0.0, 20000.0);
double SExpRlx::operator()(double x, const std::vector<double> &par) const {
assert(par.size()==3); // make sure the number of parameters handed to the function is correct
// par[0] time of beam off
// par[1] is the relaxation rate
// par[0] beam of beam on (pulse length) in seconds
// par[1] is the relaxation rate in 1/s
// par[2] is the exponent
// x should be in seconds, otherwise it should be rescaled here
if ( x >= 0 && x <= par[0] ) {
TF1 sexp1("sexp1", "exp(-([0]-x)/[3])*exp(-pow(([1]*([0]-x)),[2]))", 0.0, 20.0);
sexp1.SetParameters(x, par[1], par[2],tau_Li);
sexp1.SetNpx(1000);
return sexp1.Integral(0.0,x)/(1-exp(-x/tau_Li))/tau_Li;
} else if ( x > par[0] ) {
TF1 sexp2("sexp2", "exp(-([3]-x)/[4])*exp(-pow(([1]*([0]-x)),[2]))", 0.0, 20.0);
sexp2.SetParameters(x, par[1], par[2], par[0],tau_Li);
sexp2.SetNpx(1000);
return sexp2.Integral(0.0,par[0])/(1-exp(-par[0]/tau_Li))/tau_Li;
}
}
return 0;
}

View File

@ -41,6 +41,10 @@
#ifndef LIBBNMRH
#define LIBBNMRH
#define tau_Li 1.210 // In seconds
#define PI 3.14159265358979323846
#define TWOPI 6.28318530717958647692
using namespace std;
@ -66,7 +70,7 @@ class SExpRlx : public PUserFcnBase {
public:
// default constructor and destructor
SExpRlx(){sexp1.SetNpx(1000); sexp2.SetNpx(1000);}
SExpRlx(){}
~SExpRlx(){}
Bool_t NeedGlobalPart() const { return false; }

View File

@ -58,6 +58,7 @@
#define PRUN_ASYMMETRY 2
#define PRUN_ASYMMETRY_RRF 3
#define PRUN_MU_MINUS 4
#define PRUN_ASYMMETRY_BNMR 5
#define PRUN_NON_MUSR 8
// muon life time in (us), see PRL99, 032001 (2007)
@ -100,6 +101,7 @@
#define MSR_FITTYPE_ASYM 2
#define MSR_FITTYPE_ASYM_RRF 3
#define MSR_FITTYPE_MU_MINUS 4
#define MSR_FITTYPE_BNMR 5
#define MSR_FITTYPE_NON_MUSR 8
//-------------------------------------------------------------
@ -109,6 +111,7 @@
#define MSR_PLOT_ASYM 2
#define MSR_PLOT_ASYM_RRF 3
#define MSR_PLOT_MU_MINUS 4
#define MSR_PLOT_BNMR 5
#define MSR_PLOT_NON_MUSR 8
//-------------------------------------------------------------
@ -568,6 +571,7 @@ class PMsrGlobalBlock {
virtual Double_t GetFitRange(UInt_t idx);
virtual Int_t GetFitRangeOffset(UInt_t idx);
virtual Int_t GetPacking() { return fPacking; }
virtual Double_t GetEstimatedAlpha() { return fAlpha; }
virtual void SetGlobalPresent(Bool_t bval) { fGlobalPresent = bval; }
virtual void SetRRFFreq(Double_t freq, const char *unit);
@ -596,6 +600,7 @@ class PMsrGlobalBlock {
Double_t fFitRange[2]; ///< fit range in (us)
Int_t fFitRangeOffset[2]; ///< if fit range is given in bins it can have the form fit fgb+n0 lgb-n1. This variable holds the n0 and n1.
Int_t fPacking; ///< packing/rebinning
Double_t fAlpha; ///< estimated alpha value from F/B counts
};
//-------------------------------------------------------------
@ -643,6 +648,7 @@ class PMsrRunBlock {
virtual Double_t GetFitRange(UInt_t idx);
virtual Int_t GetFitRangeOffset(UInt_t idx);
virtual Int_t GetPacking() { return fPacking; }
virtual Double_t GetEstimatedAlpha() { return fAlpha; }
virtual Int_t GetXDataIndex() { return fXYDataIndex[0]; }
virtual Int_t GetYDataIndex() { return fXYDataIndex[1]; }
virtual TString* GetXDataLabel() { return &fXYDataLabel[0]; }
@ -665,6 +671,7 @@ class PMsrRunBlock {
virtual void SetForwardHistoNo(Int_t histoNo, Int_t idx=-1);
virtual void SetBackwardHistoNo(Int_t histoNo, Int_t idx=-1);
virtual void SetBkgEstimated(Double_t dval, Int_t idx);
virtual void SetEstimatedAlpha(Double_t dval);
virtual void SetBkgFix(Double_t dval, Int_t idx);
virtual void SetBkgRange(Int_t ival, Int_t idx);
virtual void SetDataRange(Int_t ival, Int_t idx);
@ -705,6 +712,7 @@ class PMsrRunBlock {
Bool_t fFitRangeInBins; ///< flag telling if fit range is given in time or in bins
Double_t fFitRange[2]; ///< fit range in (us)
Int_t fFitRangeOffset[2]; ///< if fit range is given in bins it can have the form fit fgb+n0 lgb-n1. This variable holds the n0 and n1.
Double_t fAlpha; ///< estimated alpha value from F/B counts
Int_t fPacking; ///< packing/rebinning
Int_t fXYDataIndex[2]; ///< used to get the data indices when using db-files (fit type 8)
TString fXYDataLabel[2]; ///< used to get the indices via labels when using db-files (fit type 8)

View File

@ -246,7 +246,7 @@ class PMusrCanvas : public TObject, public TQObject
Bool_t fDifferenceView; ///< tag showing that the shown data, fourier, are the difference between data and theory
Int_t fCurrentPlotView; ///< tag showing what the current plot view is: data, fourier, ...
Int_t fPreviousPlotView; ///< tag showing the previous plot view
Int_t fPlotType; ///< plot type tag: -1 == undefined, MSR_PLOT_SINGLE_HISTO == single histogram, MSR_PLOT_ASYM == asymmetry, MSR_PLOT_MU_MINUS == mu minus (not yet implemented), MSR_PLOT_NON_MUSR == non-muSR
Int_t fPlotType; ///< plot type tag: -1 == undefined, MSR_PLOT_SINGLE_HISTO == single histogram, MSR_PLOT_ASYM == asymmetry, MSR_PLOT_BNMR == beta-NMR asymmetry, MSR_PLOT_MU_MINUS == mu minus (not yet implemented), MSR_PLOT_NON_MUSR == non-muSR
Int_t fPlotNumber; ///< plot number
Bool_t fXRangePresent, fYRangePresent; ///< flag indicating if x-/y-range is present

View File

@ -0,0 +1,94 @@
/***************************************************************************
PRunAsymmetryBNMR.h
Author: Zaher Salman
Based on PRunAsymmetry.h by Andreas Suter
e-mail: zaher.salman@psi.ch
***************************************************************************/
/***************************************************************************
* Copyright (C) 2018-2019 by Zaher Salman *
* zaher.salman@psi.ch *
* *
* This program is free software; you can redistribute it and/or modify *
* it under the terms of the GNU General Public License as published by *
* the Free Software Foundation; either version 2 of the License, or *
* (at your option) any later version. *
* *
* This program is distributed in the hope that it will be useful, *
* but WITHOUT ANY WARRANTY; without even the implied warranty of *
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the *
* GNU General Public License for more details. *
* *
* You should have received a copy of the GNU General Public License *
* along with this program; if not, write to the *
* Free Software Foundation, Inc., *
* 59 Temple Place - Suite 330, Boston, MA 02111-1307, USA. *
***************************************************************************/
#ifndef _PRUNASYMMETRYBNMR_H_
#define _PRUNASYMMETRYBNMR_H_
#include "PRunBase.h"
//---------------------------------------------------------------------------
/**
* <p>Class handling the asymmetry fit.
*/
class PRunAsymmetryBNMR : public PRunBase
{
public:
PRunAsymmetryBNMR();
PRunAsymmetryBNMR(PMsrHandler *msrInfo, PRunDataHandler *rawData, UInt_t runNo, EPMusrHandleTag tag);
virtual ~PRunAsymmetryBNMR();
virtual Double_t CalcChiSquare(const std::vector<Double_t>& par);
virtual Double_t CalcChiSquareExpected(const std::vector<Double_t>& par);
virtual Double_t CalcMaxLikelihood(const std::vector<Double_t>& par);
virtual void CalcTheory();
virtual UInt_t GetNoOfFitBins();
virtual void SetFitRangeBin(const TString fitRange);
virtual Int_t GetStartTimeBin() { return fStartTimeBin; }
virtual Int_t GetEndTimeBin() { return fEndTimeBin; }
virtual Int_t GetPacking() { return fPacking; }
protected:
virtual void CalcNoOfFitBins();
virtual Bool_t PrepareData();
virtual Bool_t PrepareFitData();
virtual Bool_t PrepareViewData(PRawRunData* runData, UInt_t histoNo[2]);
private:
UInt_t fAlphaBetaTag; ///< \f$ 1 \to \alpha = \beta = 1\f$; \f$ 2 \to \alpha \neq 1, \beta = 1\f$; \f$ 3 \to \alpha = 1, \beta \neq 1\f$; \f$ 4 \to \alpha \neq 1, \beta \neq 1\f$.
UInt_t fNoOfFitBins; ///< number of bins to be be fitted
Int_t fPacking; ///< packing for this particular run. Either given in the RUN- or GLOBAL-block.
PDoubleVector fForwardp; ///< pos hel forward histo data
PDoubleVector fForwardpErr; ///< pos hel forward histo errors
PDoubleVector fBackwardp; ///< pos hel backward histo data
PDoubleVector fBackwardpErr; ///< pos hel backward histo errors
PDoubleVector fForwardm; ///< neg hel forward histo data
PDoubleVector fForwardmErr; ///< neg hel forward histo errors
PDoubleVector fBackwardm; ///< neg hel backward histo data
PDoubleVector fBackwardmErr; ///< neg hel backward histo errors
Int_t fGoodBins[4]; ///< keep first/last good bins. 0=fgb, 1=lgb (forward); 2=fgb, 3=lgb (backward)
Int_t fStartTimeBin; ///< bin at which the fit starts
Int_t fEndTimeBin; ///< bin at which the fit ends
Bool_t SubtractFixBkg();
Bool_t SubtractEstimatedBkg();
virtual Bool_t GetProperT0(PRawRunData* runData, PMsrGlobalBlock *globalBlock, PUIntVector &forwardHisto, PUIntVector &backwardHistoNo);
virtual Bool_t GetProperDataRange(PRawRunData* runData, UInt_t histoNo[2]);
virtual void GetProperFitRange(PMsrGlobalBlock *globalBlock);
virtual Double_t EstimateAlpha();
};
#endif // _PRUNASYMMETRYBNMR_H_

View File

@ -39,6 +39,7 @@
#include "PRunSingleHistoRRF.h"
#include "PRunAsymmetry.h"
#include "PRunAsymmetryRRF.h"
#include "PRunAsymmetryBNMR.h"
#include "PRunMuMinus.h"
#include "PRunNonMusr.h"
@ -62,6 +63,7 @@ class PRunListCollection
virtual Double_t GetSingleHistoRRFChisq(const std::vector<Double_t>& par) const;
virtual Double_t GetAsymmetryChisq(const std::vector<Double_t>& par) const;
virtual Double_t GetAsymmetryRRFChisq(const std::vector<Double_t>& par) const;
virtual Double_t GetAsymmetryBNMRChisq(const std::vector<Double_t>& par) const;
virtual Double_t GetMuMinusChisq(const std::vector<Double_t>& par) const;
virtual Double_t GetNonMusrChisq(const std::vector<Double_t>& par) const;
@ -72,6 +74,7 @@ class PRunListCollection
virtual Double_t GetSingleHistoRRFMaximumLikelihood(const std::vector<Double_t>& par) const;
virtual Double_t GetAsymmetryMaximumLikelihood(const std::vector<Double_t>& par) const;
virtual Double_t GetAsymmetryRRFMaximumLikelihood(const std::vector<Double_t>& par) const;
virtual Double_t GetAsymmetryBNMRMaximumLikelihood(const std::vector<Double_t>& par) const;
virtual Double_t GetMuMinusMaximumLikelihood(const std::vector<Double_t>& par) const;
virtual Double_t GetNonMusrMaximumLikelihood(const std::vector<Double_t>& par) const;
@ -85,6 +88,7 @@ class PRunListCollection
virtual UInt_t GetNoOfSingleHistoRRF() const { return fRunSingleHistoRRFList.size(); } ///< returns the number of single histogram RRF data sets present in the msr-file
virtual UInt_t GetNoOfAsymmetry() const { return fRunAsymmetryList.size(); } ///< returns the number of asymmetry data sets present in the msr-file
virtual UInt_t GetNoOfAsymmetryRRF() const { return fRunAsymmetryRRFList.size(); } ///< returns the number of asymmetry RRF data sets present in the msr-file
virtual UInt_t GetNoOfAsymmetryBNMR() const { return fRunAsymmetryBNMRList.size(); } ///< returns the number of asymmetry BNMR data sets present in the msr-file
virtual UInt_t GetNoOfMuMinus() const { return fRunMuMinusList.size(); } ///< returns the number of mu minus data sets present in the msr-file
virtual UInt_t GetNoOfNonMusr() const { return fRunNonMusrList.size(); } ///< returns the number of non-muSR data sets present in the msr-file
@ -92,6 +96,7 @@ class PRunListCollection
virtual PRunData* GetSingleHistoRRF(UInt_t index, EDataSwitch tag=kIndex);
virtual PRunData* GetAsymmetry(UInt_t index, EDataSwitch tag=kIndex);
virtual PRunData* GetAsymmetryRRF(UInt_t index, EDataSwitch tag=kIndex);
virtual PRunData* GetAsymmetryBNMR(UInt_t index, EDataSwitch tag=kIndex);
virtual PRunData* GetMuMinus(UInt_t index, EDataSwitch tag=kIndex);
virtual PRunData* GetNonMusr(UInt_t index, EDataSwitch tag=kIndex);
@ -110,6 +115,7 @@ class PRunListCollection
std::vector<PRunSingleHistoRRF*> fRunSingleHistoRRFList; ///< stores all processed single histogram RRF data
std::vector<PRunAsymmetry*> fRunAsymmetryList; ///< stores all processed asymmetry data
std::vector<PRunAsymmetryRRF*> fRunAsymmetryRRFList; ///< stores all processed asymmetry RRF data
std::vector<PRunAsymmetryBNMR*> fRunAsymmetryBNMRList; ///< stores all processed asymmetry BNMR data
std::vector<PRunMuMinus*> fRunMuMinusList; ///< stores all processed mu-minus data
std::vector<PRunNonMusr*> fRunNonMusrList; ///< stores all processed non-muSR data
};

View File

@ -645,6 +645,169 @@ Int_t main(Int_t argc, Char_t *argv[])
}
}
}
break;
case MSR_FITTYPE_BNMR:
if ((runList->at(i).GetRunNameSize() == 1) && (runList->at(i).GetForwardHistoNoSize() == 1)) { // no addruns / no grouping
// handle forward histo
// get histo number
histoNo = runList->at(i).GetForwardHistoNo();
runName = runList->at(i).GetRunName();
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetT0Bin(t0Bin, 0);
// set data range as well if firstGoodBinOffset is given
if (firstGoodBinOffsetPresent) {
start = t0Bin + firstGoodBinOffset;
end = dataHandler->GetRunData(*runName)->GetDataBin(histoNo)->size();
runList->at(i).SetDataRange(start, 0);
runList->at(i).SetDataRange(end, 1);
}
// handle backward histo
// get histo number
histoNo = runList->at(i).GetBackwardHistoNo();
runName = runList->at(i).GetRunName();
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetT0Bin(t0Bin, 1);
// set data range as well if firstGoodBinOffset is given
if (firstGoodBinOffsetPresent) {
start = t0Bin + firstGoodBinOffset;
end = dataHandler->GetRunData(*runName)->GetDataBin(histoNo)->size();
runList->at(i).SetDataRange(start, 2);
runList->at(i).SetDataRange(end, 3);
}
} else if ((runList->at(i).GetRunNameSize() > 1) && (runList->at(i).GetForwardHistoNoSize() == 1)) { // addruns / no grouping
// handle forward histo
// get histo number
histoNo = runList->at(i).GetForwardHistoNo();
runName = runList->at(i).GetRunName();
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetT0Bin(t0Bin, 0);
// set data range as well if firstGoodBinOffset is given
if (firstGoodBinOffsetPresent) {
start = t0Bin + firstGoodBinOffset;
end = dataHandler->GetRunData(*runName)->GetDataBin(histoNo)->size();
runList->at(i).SetDataRange(start, 0);
runList->at(i).SetDataRange(end, 1);
}
// handle addruns
for (UInt_t j=1; j<runList->at(i).GetRunNameSize(); j++) {
runName = runList->at(i).GetRunName(j);
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetAddT0Bin(t0Bin, j-1, 0);
}
// handle backward histo
// get histo number
histoNo = runList->at(i).GetBackwardHistoNo();
runName = runList->at(i).GetRunName();
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetT0Bin(t0Bin, 1);
// set data range as well if firstGoodBinOffset is given
if (firstGoodBinOffsetPresent) {
start = t0Bin + firstGoodBinOffset;
end = dataHandler->GetRunData(*runName)->GetDataBin(histoNo)->size();
runList->at(i).SetDataRange(start, 2);
runList->at(i).SetDataRange(end, 3);
}
// handle addruns
for (UInt_t j=1; j<runList->at(i).GetRunNameSize(); j++) {
runName = runList->at(i).GetRunName(j);
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetAddT0Bin(t0Bin, j-1, 1);
}
} else if ((runList->at(i).GetRunNameSize() == 1) && (runList->at(i).GetForwardHistoNoSize() > 1)) { // no addruns / grouping
// handle forward histo
for (UInt_t j=0; j<runList->at(i).GetForwardHistoNoSize(); j++) {
// get histo number
histoNo = runList->at(i).GetForwardHistoNo(j);
runName = runList->at(i).GetRunName();
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetT0Bin(t0Bin, 2*j);
if (firstGoodBinOffsetPresent && (j==0)) {
start = t0Bin + firstGoodBinOffset;
end = dataHandler->GetRunData(*runName)->GetDataBin(histoNo)->size();
runList->at(i).SetDataRange(start, 0);
runList->at(i).SetDataRange(end, 1);
}
}
// handle backward histo
for (UInt_t j=0; j<runList->at(i).GetBackwardHistoNoSize(); j++) {
// get histo number
histoNo = runList->at(i).GetBackwardHistoNo(j);
runName = runList->at(i).GetRunName();
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetT0Bin(t0Bin, 2*j+1);
if (firstGoodBinOffsetPresent && (j==0)) {
start = t0Bin + firstGoodBinOffset;
end = dataHandler->GetRunData(*runName)->GetDataBin(histoNo)->size();
runList->at(i).SetDataRange(start, 2);
runList->at(i).SetDataRange(end, 3);
}
}
} else { // addruns / grouping
// handle forward histo
for (UInt_t j=0; j<runList->at(i).GetForwardHistoNoSize(); j++) {
// get histo number
histoNo = runList->at(i).GetForwardHistoNo(j);
runName = runList->at(i).GetRunName();
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetT0Bin(t0Bin, 2*j);
if (firstGoodBinOffsetPresent && (j==0)) {
start = t0Bin + firstGoodBinOffset;
end = dataHandler->GetRunData(*runName)->GetDataBin(histoNo)->size();
runList->at(i).SetDataRange(start, 0);
runList->at(i).SetDataRange(end, 1);
}
// handle addruns
for (UInt_t k=1; k<runList->at(i).GetRunNameSize(); k++) {
runName = runList->at(i).GetRunName(k);
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetAddT0Bin(t0Bin, k-1, 2*j);
}
}
// handle backward histo
for (UInt_t j=0; j<runList->at(i).GetBackwardHistoNoSize(); j++) {
// get histo number
histoNo = runList->at(i).GetBackwardHistoNo(j);
runName = runList->at(i).GetRunName();
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetT0Bin(t0Bin, 2*j+1);
if (firstGoodBinOffsetPresent && (j==0)) {
start = t0Bin + firstGoodBinOffset;
end = dataHandler->GetRunData(*runName)->GetDataBin(histoNo)->size();
runList->at(i).SetDataRange(start, 2);
runList->at(i).SetDataRange(end, 3);
}
// handle addruns
for (UInt_t k=1; k<runList->at(i).GetRunNameSize(); k++) {
runName = runList->at(i).GetRunName(k);
// get bin position of maximal data
t0Bin = musrt0_getMaxBin(dataHandler->GetRunData(*runName)->GetDataBin(histoNo));
// set t0 to maximum data position
runList->at(i).SetAddT0Bin(t0Bin, k-1, 2*j+1);
}
}
}
break;
default:
break;
@ -806,6 +969,7 @@ Int_t main(Int_t argc, Char_t *argv[])
}
break;
case MSR_FITTYPE_ASYM:
case MSR_FITTYPE_BNMR:
case MSR_FITTYPE_ASYM_RRF:
if ((runList->at(i).GetRunNameSize() == 1) && (runList->at(i).GetForwardHistoNoSize() == 1)) { // no addruns / no grouping
// feed necessary data forward