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Gabriele Cosmo
2021-12-10 14:46:44 +01:00
committed by Ben Morgan
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examples/extended/optical/.README.txt
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///\file "optical/.README.txt"
///\brief Examples optical README page
/*! \page Examples_optical Category "optical"
This directory includes examples demonstrating the use of optical processes
in the simulation.
\link ExampleOpNovice OpNovice \endlink
Simulation of optical photons generation and transport.
Defines optical surfaces and exercises optical physics processes
(Cerenkov, Scintillation, Absorption, Rayleigh, ...). Uses stacking
mechanism to count the secondary particles generated.
\link ExampleOpNovice2 OpNovice2 \endlink
Investigate optical properties and parameters. Details of optical
photon boundary interactions on a surface are recorded. Details
of optical photon generation and transport are recorded.
\link ExampleLXe LXe \endlink
Multi-purpose detector setup implementing:
-# scintillation inside a bulk scintillator with PMTs
-# large wall of small PMTs opposite a Cerenkov slab to show the cone
-# plastic scintillator with wave-length-shifting fiber readout.
\link Examplewls wls \endlink
This application simulates the propagation of photons inside a Wave Length
Shifting (WLS) fiber.
*/
examples/extended/optical/CMakeLists.txt
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#---Adding all optical examples subdirectories explicitly
cmake_minimum_required(VERSION 3.12...3.20)
cmake_minimum_required(VERSION 3.16...3.21)
add_subdirectory(OpNovice)
add_subdirectory(OpNovice2)
examples/extended/optical/LXe/.README.txt
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///\file "optical/LXe/.README.txt"
///\brief Example LXe README page
/*! \page ExampleLXe Example LXe
\section LXe_s1 Introduction
This example demonstrates usage of optical physics.
\section LXe_s2 Geometry and primary particle
The main volume is a box of LXe. PMTs are placed around the outside. There
may be a reflective sphere placed inside the box, and a wavelength shifting
slab and fibers.
The geometry implementation is different from many of the other examples.
See the discussion below.
G4ParticleGun creates the primary particle. The type of particle is selectable
by the user.
\section LXe_s3 Physics
The physics list is FTFP_BERT, with G4EmStandard_option4 electromagnetic
physics and G4OpticalPhysics.
\section LXe_s4 Physics Macro files
cerenkov.mac disables scintillation, so the optical photons that are produced
are Cerenkov photons.
wls.mac implements a scintillating slab and wavelength shifting fibers.
\section LXe_s5 List of built-in histograms
1 "hits per event"
2 "hits per event above threshold"
3 "scintillation photons per event"
4 "Cerenkov photons per event"
5 "absorbed photons per event"
6 "photons absorbed at boundary per event"
7 "energy deposition in scintillator per event"
\section LXe_s6 How to start?
- execute LXe in 'batch' mode from macro files, e.g.
$ ./LXe cerenkov.mac
- execute LXe in 'interactive' mode with visualization, e.g.
$ ./LXe
Then type commands, for instance
Session: /run/beamOn 1
\section LXe_s7 Macros included
Several macros are include in the distribution:
cerenkov.mac: Shoot a 200 MeV mu+ and only allow it to take one step. The
Cerenkov cone and PMTs hit are visible. (Reduce the number
of particles for visualization.)
LXe.mac: Shoot a 511 keV gamma with the default geometry.
photon.mac: Primary beam is an optical photon, with the default geometry.
wls.mac: Geometry includes 15 WLS fibers. A 511 keV electron is the
primary.
-
\section LXe_s8 Detailed Explanation of Geometry Implementation
The way the geometry is constructed is an experiment for a new, more object
oriented, way to construct geometry. It separates the concept of how a volume
is built from where it is placed. Each major volume in the geometry is defined
as a class derived from G4PVPlacement. In this example, just the main LXe
volume, the WLS scintillator slab, and the WLS fibers were chosen. To place
one of these volumes, simply create an instance of it with the appropriate
rotation, translation, and mother volumes.
\verbatim
LXeMainVolume(G4RotationMatrix *pRot,
const G4ThreeVector &tlate,
G4LogicalVolume *pMotherLogical,
G4bool pMany,
G4int pCopyNo,
LXeDetectorConstruction* c);
\endverbatim
Also necessary are the pMany and pCopyNo variables with the same usage as in
G4PVPlacement. Additionally, the detector construction must be passed to the
main volume as a way to communicate the many parameters to the volume and its
sub-volumes. The communication is done from the CopyValues() function which
retrieves the information from the detector constructor.
Notably, the name and logical volume parameters are no longer part of the
constructor. This is because they are both to be decided by the volume itself.
The volume must specify its own name and a temporary logical volume. The
constructor will then procede to define its logical volume in the normal way.
Once complete, the logical volume can be assigned to the physical volume using
the SetLogicalVolume() function.
To handle instances of the same type of volume, a new logical volume should not
be defined for each one. Instead, the logical volume is kept as a static member
and defined only once.
\verbatim
if (!housing_log || updated) {
//...
//Define logical volume
//...
}
SetLogicalVolume(housing_log);
\endverbatim
The updated variable is to signal that the volume needs to be updated and a new
logical volume made.
\section LXe_s9 Modifying the geometry at runtime
This example allows the user to modify the geometry definition at runtime. This
is accomplished through LXeDetectorMessenger, a derived class of G4UImessenger.
The commands it adds change variables stored in LXeDetectorConstructor that
are used when constructing the geometry.
\verbatim
void LXeDetectorConstruction::UpdateGeometry(){
// clean-up previous geometry
G4SolidStore::GetInstance()->Clean();
G4LogicalVolumeStore::GetInstance()->Clean();
G4PhysicalVolumeStore::GetInstance()->Clean();
//define new one
G4RunManager::GetRunManager()->DefineWorldVolume(ConstructDetector());
G4RunManager::GetRunManager()->GeometryHasBeenModified();
}
\endverbatim
\section LXe_s10 PMT sensitive detector
The PMT sensitive detector cannot be triggered like a normal sensitive detector
because the sensitive volume does not allow photons to pass through it. Rather,
it detects them in the OpBoundary process based on an efficiency set on the
skin of the volume.
\verbatim
G4OpticalSurface* photocath_opsurf=
new G4OpticalSurface("photocath_opsurf",glisur,polished,
dielectric_metal);
G4double photocath_EFF[num]={1.,1.};
G4double photocath_REFL[num]={0.,0.};
G4MaterialPropertiesTable* photocath_mt = new G4MaterialPropertiesTable();
photocath_mt->AddProperty("EFFICIENCY",Ephoton,photocath_EFF,num);
photocath_mt->AddProperty("REFLECTIVITY",Ephoton,photocath_REFL,num);
photocath_opsurf->SetMaterialPropertiesTable(photocath_mt);
new G4LogicalSkinSurface("photocath_surf",photocath_log,photocath_opsurf);
\endverbatim
A normal sensitive detector would have its ProcessHits
function called for each step by a particle inside the volume. So, to record
these hits with a sensitive detector we watched the status of the OpBoundary
process from the stepping manager whenever a photon hit the sensitive volume
of the pmt. If the status was 'Detection', we retrieve the sensitive detector
from G4SDManager and call its ProcessHits function.
\verbatim
boundaryStatus=boundary->GetStatus();
//Check to see if the particle was actually at a boundary
//Otherwise the boundary status may not be valid
//Prior to Geant4.6.0-p1 this would not have been enough to check
if(thePostPoint->GetStepStatus()==fGeomBoundary){
switch(boundaryStatus){
//...
case Detection: //Note, this assumes that the volume causing detection
//is the photocathode because it is the only one with
//non-zero efficiency
{
//Trigger sensitive detector manually since photon is
//absorbed but status was Detection
G4SDManager* SDman = G4SDManager::GetSDMpointer();
G4String sdName="/LXeDet/pmtSD";
LXePMTSD* pmtSD = (LXePMTSD*)SDman
->FindSensitiveDetector(sdName);
if(pmtSD)
pmtSD->ProcessHits_constStep(theStep,NULL);
break;
}
//...
}
\endverbatim
\section LXe_s11 Selectively drawing trajectories or highlighting volumes
In a simulation such as this one, where an average of 6000 trajectories are
generated in a small space, there is little use in drawing all of them. There
are two ways to select which ones to draw. The first of which is to decide
while looping through the trajectory container which ones to draw and only call
DrawTrajectory on the important ones. However, trajectories only contain a
small portion of the information from the track it represents. This may not
be enough to decide if a trajectory is worth drawing.
The alternative is to define your own trajectory class to store additional
information to help decide if it should be drawn. To use your custom trajectory
you must create it in the PreUserTrackingAction:
\verbatim
fpTrackingManager->SetTrajectory(new LXeTrajectory(aTrack));
\endverbatim
Then at any point you can get access to the trajectory you can update the extra
information within it. When it comes to drawing, you can then use this to
decide if you want to call DrawTrajectory. Or you can call DrawTrajectory for
all trajectories and have the logic decide how and if a trajectory should
be drawn inside the DrawTrajectory function itself.
Selectively highlighting volumes is useful to show which volumes were hit. To
do this, you simply need a pointer to the physical volume. With that, you can
modify its vis attributes and instruct the vis manager to redraw the volume
with the new vis attributes.
\verbatim
G4VisAttributes attribs(G4Colour(1.,0.,0.));
attribs.SetForceSolid(true);
G4RotationMatrix rot;
if(physVol->GetRotation())//If a rotation is defined use it
rot=*(physVol->GetRotation());
G4Transform3D trans(rot,physVol->GetTranslation());//Create transform
pVVisManager->Draw(*physVol,attribs,trans);//Draw it
\endverbatim
In this case, it is done in Draw function of a PMT hit but it can be placed
anywhere. The logic to decide if it should be drawn or not may be similar to
the logic used in choosing which trajectories to draw.
See /LXe/detector/volumes/sphere in "UI commands" below for info on what
trajectories are drawn in this simulation.
\section LXe_s12 Saving random engine seeds
At times it may be necessary to review a particular event of interest. To do
this without redoing an entire run, which may take a long time, you must store
the random engine seed from the beginning of the event. The run manager
has some functions that help in this task.
\verbatim
G4RunManager::SetRandomNumberStore(G4bool)
\endverbatim
When set to true, this causes the run manager to write the seed for the
beginning of the current run to CurrentRun.rndm and the current event to
CurrentEvent.rndm. However, at the beginning of each event this file will be
overwritten with the new event. To keep a copy for a particular event there is
a function to copy this file to "run###evt###.rndm".
\verbatim
G4RunManager::rndmSaveThisEvent()
\endverbatim
This can be done for every event so you can review any event you like but this
may be awkward for runs with very large numbers of events. Instead, implement
some form of logic in EndOfEventAction to decide if the event is worth saving.
If it is, then call rndmSaveThisEvent(). By default, these files are stored in
the current working directory. There is a function to change this as well.
Typically you would call that at the same time SetRandomNumberStore. The
directory to save in must exist first. GEANT4 will not create it for you.
\verbatim
G4RunManager::SetRandomNumberStoreDir(G4String)
\endverbatim
\section LXe_s13 UI commands
Directories:
\verbatim
/LXe/ - All custom commands belong below this directory
/LXe/detector/ - Geometry related commands
/LXe/detector/volumes/ - Commands to enable/disable volumes in the geometry
\endverbatim
Commands:
\verbatim
/LXe/saveThreshold <int, default = 4500>
\endverbatim
-Specifies a threshold for saving the random seed for an event. If the number
of photons generated in an event is below this number then the random seed is
saved to "./random/run###evt###.rndm". See "Saving random engine seeds".
\verbatim
/LXe/eventVerbose <int, default = 1>
\endverbatim
-Enables end of event verbose data to be printed. This includes information
counted and calculated by the user action classes.
\verbatim
/LXe/pmtThreshold <int, default = 1>
\endverbatim
-Sets the PMT threshold in # of photons being detected by the PMT. PMTs below
with fewer hits than the threshold will not count as being hit and will also
not be highlighted at the end of the event.
\verbatim
/LXe/oneStepPrimaries <bool>
\endverbatim
-This causes primary particles to be killed after going only one step inside
the scintillator volume. This is useful to view the photons generated during
the initial conversion of the primary particle.
\verbatim
/LXe/forceDrawPhotons <bool>
\endverbatim
-Forces all optical photon trajectories to be drawn at the end of the event
regardless of the scheme mentioned in /LXe/detector/volumes/sphere below.
\verbatim
/LXe/forceDrawNoPhotons <bool>
\endverbatim
-Forces all optical photon trajectories to NOT be drawn at the end of the
event regardless of the scheme mentioned in /LXe/detector/volumes/sphere below.
-If /LXe/forceDrawPhotons is set to true, this has no effect.
\verbatim
/LXe/detector/dimensions <double x y z> <unit, default = cm>
\endverbatim
-Sets the dimensions of the main scintillator volume.
\verbatim
/LXe/detector/housingThickness <double>
\endverbatim
-Sets the thickness of the housing surrounding the main detector volume.
\verbatim
/LXe/detector/pmtRadius <double> <unit, default = cm>
\endverbatim
-Sets the radius of the PMTs
\verbatim
/LXe/detector/nx
/LXe/detector/ny
/LXe/detector/nz
\endverbatim
-Sets the number of PMTs placed in a row along each axis.
\verbatim
/LXe/detector/reflectivity <double>
\endverbatim
-Sets the reflectivity of the inside of the aluminum housing. The geometry
uses a default value of 1.00 for a fully reflective surface.
\verbatim
/LXe/detector/nfibers <int>
\endverbatim
-Sets the number of WLS fibers placed in the WLS scintillator slab. The
geometry uses a default value of 15 fibers.
\verbatim
/LXe/detector/scintYieldFactor <double>
\endverbatim
-Sets the yield factor for the scintillation process. This is cumulative with
the yield factor set on individual materials. Set to 0 to produce no
scintillation photons.
\verbatim
/LXe/detector/defaults
\endverbatim
-Resets all detector values customizable with commands above to their defaults.
\verbatim
/LXe/detector/volumes/sphere <bool>
\endverbatim
-Enables/disables the sphere placed inside the main scintillator volume. When
the sphere is enabled, only photons that hit the sphere and hit a PMT are
drawn. If it is disabled, then all photons that hit PMTs are drawn.
\verbatim
/LXe/detector/volumes/wls <bool>
\endverbatim
-Enables/disables the WLS scintillator slab containing WLS fibers. By default
this is not part of the geometry. Enabling it will place it behind the LXe
scintillator volume.
\verbatim
/LXe/detector/volumes/lxe <bool>
\endverbatim
-Enables/disables the main LXe scintillator volume. By default this is part of
the geometry.
*/
examples/extended/optical/LXe/CMakeLists.txt
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#----------------------------------------------------------------------------
# Setup the project
cmake_minimum_required(VERSION 3.12...3.20)
cmake_minimum_required(VERSION 3.16...3.21)
project(LXe)
#----------------------------------------------------------------------------
examples/extended/optical/LXe/History
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* Reverse chronological order (last date on top), please *
----------------------------------------------------------
October 06, 2021 I. Hrivnacova (LXe-V10-07-03)
- Migration to new G4AnalysisManager.hh header;
define the default output file type (root).
July 19, 2021 I. Hrivnacova (LXe-V10-07-02)
- Updated for changes in the analysis category:
removed deleting of the analysis manager,
as this is now done by the Geant4 kernel.
May 13, 2021 D. Sawkey (LXe-V10-07-01)
- Get some refractive indices from new G4OpticalMaterialParameters file
examples/extended/optical/LXe/LXe.out
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examples/extended/optical/LXe/README
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LXe Example
-----------
------------
Introduction
------------
This example demonstrates usage of optical physics.
-----------------------------
Geometry and primary particle
-----------------------------
The main volume is a box of LXe. PMTs are placed around the outside. There
may be a reflective sphere placed inside the box, and a wavelength shifting
slab and fibers.
The geometry implementation is different from many of the other examples.
See the discussion below.
G4ParticleGun creates the primary particle. The type of particle is selectable
by the user.
-------
Physics
-------
The physics list is FTFP_BERT, with G4EmStandard_option4 electromagnetic
physics and G4OpticalPhysics.
-----------
Macro files
-----------
cerenkov.mac disables scintillation, so the optical photons that are produced
are Cerenkov photons.
wls.mac implements a scintillating slab and wavelength shifting fibers.
---------------------------
List of built-in histograms
---------------------------
1 "hits per event"
2 "hits per event above threshold"
3 "scintillation photons per event"
4 "Cerenkov photons per event"
5 "absorbed photons per event"
6 "photons absorbed at boundary per event"
7 "energy deposition in scintillator per event"
-------------
How to start?
-------------
- execute LXe in 'batch' mode from macro files, e.g.
$ ./LXe cerenkov.mac
- execute LXe in 'interactive' mode with visualization, e.g.
$ ./LXe
Then type commands, for instance
Session: /run/beamOn 1
---------------
Macros included
---------------
Several macros are include in the distribution:
cerenkov.mac: Shoot a 200 MeV mu+ and only allow it to take one step. The
Cerenkov cone and PMTs hit are visible. (Reduce the number
of particles for visualization.)
LXe.mac: Shoot a 511 keV gamma with the default geometry.
photon.mac: Primary beam is an optical photon, with the default geometry.
wls.mac: Geometry includes 15 WLS fibers. A 511 keV electron is the
primary.
-----------------------------------------------
Detailed Explanation of Geometry Implementation
-----------------------------------------------
The way the geometry is constructed is an experiment for a new, more object
oriented, way to construct geometry. It separates the concept of how a volume
is built from where it is placed. Each major volume in the geometry is defined
as a class derived from G4PVPlacement. In this example, just the main LXe
volume, the WLS scintillator slab, and the WLS fibers were chosen. To place
one of these volumes, simply create an instance of it with the appropriate
rotation, translation, and mother volumes.
LXeMainVolume(G4RotationMatrix *pRot,
const G4ThreeVector &tlate,
G4LogicalVolume *pMotherLogical,
G4bool pMany,
G4int pCopyNo,
LXeDetectorConstruction* c);
Also necessary are the pMany and pCopyNo variables with the same usage as in
G4PVPlacement. Additionally, the detector construction must be passed to the
main volume as a way to communicate the many parameters to the volume and its
sub-volumes. The communication is done from the CopyValues() function which
retrieves the information from the detector constructor.
Notably, the name and logical volume parameters are no longer part of the
constructor. This is because they are both to be decided by the volume itself.
The volume must specify its own name and a temporary logical volume. The
constructor will then procede to define its logical volume in the normal way.
Once complete, the logical volume can be assigned to the physical volume using
the SetLogicalVolume() function.
To handle instances of the same type of volume, a new logical volume should not
be defined for each one. Instead, the logical volume is kept as a static member
and defined only once.
if (!housing_log || updated) {
//...
//Define logical volume
//...
}
SetLogicalVolume(housing_log);
The updated variable is to signal that the volume needs to be updated and a new
logical volume made.
---------------------------------
Modifying the geometry at runtime
---------------------------------
This example allows the user to modify the geometry definition at runtime. This
is accomplished through LXeDetectorMessenger, a derived class of G4UImessenger.
The commands it adds change variables stored in LXeDetectorConstructor that
are used when constructing the geometry.
void LXeDetectorConstruction::UpdateGeometry(){
// clean-up previous geometry
G4SolidStore::GetInstance()->Clean();
G4LogicalVolumeStore::GetInstance()->Clean();
G4PhysicalVolumeStore::GetInstance()->Clean();
//define new one
G4RunManager::GetRunManager()->DefineWorldVolume(ConstructDetector());
G4RunManager::GetRunManager()->GeometryHasBeenModified();
}
----------------------
PMT sensitive detector
----------------------
The PMT sensitive detector cannot be triggered like a normal sensitive detector
because the sensitive volume does not allow photons to pass through it. Rather,
it detects them in the OpBoundary process based on an efficiency set on the
skin of the volume.
G4OpticalSurface* photocath_opsurf=
new G4OpticalSurface("photocath_opsurf",glisur,polished,
dielectric_metal);
G4double photocath_EFF[num]={1.,1.};
G4double photocath_REFL[num]={0.,0.};
G4MaterialPropertiesTable* photocath_mt = new G4MaterialPropertiesTable();
photocath_mt->AddProperty("EFFICIENCY",Ephoton,photocath_EFF,num);
photocath_mt->AddProperty("REFLECTIVITY",Ephoton,photocath_REFL,num);
photocath_opsurf->SetMaterialPropertiesTable(photocath_mt);
new G4LogicalSkinSurface("photocath_surf",photocath_log,photocath_opsurf);
A normal sensitive detector would have its ProcessHits
function called for each step by a particle inside the volume. So, to record
these hits with a sensitive detector we watched the status of the OpBoundary
process from the stepping manager whenever a photon hit the sensitive volume
of the pmt. If the status was 'Detection', we retrieve the sensitive detector
from G4SDManager and call its ProcessHits function.
boundaryStatus=boundary->GetStatus();
//Check to see if the particle was actually at a boundary
//Otherwise the boundary status may not be valid
//Prior to Geant4.6.0-p1 this would not have been enough to check
if(thePostPoint->GetStepStatus()==fGeomBoundary){
switch(boundaryStatus){
//...
case Detection: //Note, this assumes that the volume causing detection
//is the photocathode because it is the only one with
//non-zero efficiency
{
//Trigger sensitive detector manually since photon is
//absorbed but status was Detection
G4SDManager* SDman = G4SDManager::GetSDMpointer();
G4String sdName="/LXeDet/pmtSD";
LXePMTSD* pmtSD = (LXePMTSD*)SDman
->FindSensitiveDetector(sdName);
if(pmtSD)
pmtSD->ProcessHits_constStep(theStep,NULL);
break;
}
//...
}
--------------------------------------------------------
Selectively drawing trajectories or highlighting volumes
--------------------------------------------------------
In a simulation such as this one, where an average of 6000 trajectories are
generated in a small space, there is little use in drawing all of them. There
are two ways to select which ones to draw. The first of which is to decide
while looping through the trajectory container which ones to draw and only call
DrawTrajectory on the important ones. However, trajectories only contain a
small portion of the information from the track it represents. This may not
be enough to decide if a trajectory is worth drawing.
The alternative is to define your own trajectory class to store additional
information to help decide if it should be drawn. To use your custom trajectory
you must create it in the PreUserTrackingAction:
fpTrackingManager->SetTrajectory(new LXeTrajectory(aTrack));
Then at any point you can get access to the trajectory you can update the extra
information within it. When it comes to drawing, you can then use this to
decide if you want to call DrawTrajectory. Or you can call DrawTrajectory for
all trajectories and have the logic decide how and if a trajectory should
be drawn inside the DrawTrajectory function itself.
Selectively highlighting volumes is useful to show which volumes were hit. To
do this, you simply need a pointer to the physical volume. With that, you can
modify its vis attributes and instruct the vis manager to redraw the volume
with the new vis attributes.
G4VisAttributes attribs(G4Colour(1.,0.,0.));
attribs.SetForceSolid(true);
G4RotationMatrix rot;
if(physVol->GetRotation())//If a rotation is defined use it
rot=*(physVol->GetRotation());
G4Transform3D trans(rot,physVol->GetTranslation());//Create transform
pVVisManager->Draw(*physVol,attribs,trans);//Draw it
In this case, it is done in Draw function of a PMT hit but it can be placed
anywhere. The logic to decide if it should be drawn or not may be similar to
the logic used in choosing which trajectories to draw.
See /LXe/detector/volumes/sphere in "UI commands" below for info on what
trajectories are drawn in this simulation.
--------------------------
Saving random engine seeds
--------------------------
At times it may be necessary to review a particular event of interest. To do
this without redoing an entire run, which may take a long time, you must store
the random engine seed from the beginning of the event. The run manager
has some functions that help in this task.
G4RunManager::SetRandomNumberStore(G4bool)
When set to true, this causes the run manager to write the seed for the
beginning of the current run to CurrentRun.rndm and the current event to
CurrentEvent.rndm. However, at the beginning of each event this file will be
overwritten with the new event. To keep a copy for a particular event there is
a function to copy this file to run###evt###.rndm.
G4RunManager::rndmSaveThisEvent()
This can be done for every event so you can review any event you like but this
may be awkward for runs with very large numbers of events. Instead, implement
some form of logic in EndOfEventAction to decide if the event is worth saving.
If it is, then call rndmSaveThisEvent(). By default, these files are stored in
the current working directory. There is a function to change this as well.
Typically you would call that at the same time SetRandomNumberStore. The
directory to save in must exist first. GEANT4 will not create it for you.
G4RunManager::SetRandomNumberStoreDir(G4String)
-----------
UI commands
-----------
Directories:
/LXe/ - All custom commands belong below this directory
/LXe/detector/ - Geometry related commands
/LXe/detector/volumes/ - Commands to enable/disable volumes in the geometry
Commands:
/LXe/saveThreshold <int, default = 4500>
-Specifies a threshold for saving the random seed for an event. If the number
of photons generated in an event is below this number then the random seed is
saved to ./random/run###evt###.rndm. See "Saving random engine seeds".
/LXe/eventVerbose <int, default = 1>
-Enables end of event verbose data to be printed. This includes information
counted and calculated by the user action classes.
/LXe/pmtThreshold <int, default = 1>
-Sets the PMT threshold in # of photons being detected by the PMT. PMTs below
with fewer hits than the threshold will not count as being hit and will also
not be highlighted at the end of the event.
/LXe/oneStepPrimaries <bool>
-This causes primary particles to be killed after going only one step inside
the scintillator volume. This is useful to view the photons generated during
the initial conversion of the primary particle.
/LXe/forceDrawPhotons <bool>
-Forces all optical photon trajectories to be drawn at the end of the event
regardless of the scheme mentioned in /LXe/detector/volumes/sphere below.
/LXe/forceDrawNoPhotons <bool>
-Forces all optical photon trajectories to NOT be drawn at the end of the
event regardless of the scheme mentioned in /LXe/detector/volumes/sphere below.
-If /LXe/forceDrawPhotons is set to true, this has no effect.
/LXe/detector/dimensions <double x y z> <unit, default = cm>
-Sets the dimensions of the main scintillator volume.
/LXe/detector/housingThickness <double>
-Sets the thickness of the housing surrounding the main detector volume.
/LXe/detector/pmtRadius <double> <unit, default = cm>
-Sets the radius of the PMTs
/LXe/detector/nx
/LXe/detector/ny
/LXe/detector/nz
-Sets the number of PMTs placed in a row along each axis.
/LXe/detector/reflectivity <double>
-Sets the reflectivity of the inside of the aluminum housing. The geometry
uses a default value of 1.00 for a fully reflective surface.
/LXe/detector/nfibers <int>
-Sets the number of WLS fibers placed in the WLS scintillator slab. The
geometry uses a default value of 15 fibers.
/LXe/detector/scintYieldFactor <double>
-Sets the yield factor for the scintillation process. This is cumulative with
the yield factor set on individual materials. Set to 0 to produce no
scintillation photons.
/LXe/detector/defaults
-Resets all detector values customizable with commands above to their defaults.
/LXe/detector/volumes/sphere <bool>
-Enables/disables the sphere placed inside the main scintillator volume. When
the sphere is enabled, only photons that hit the sphere and hit a PMT are
drawn. If it is disabled, then all photons that hit PMTs are drawn.
/LXe/detector/volumes/wls <bool>
-Enables/disables the WLS scintillator slab containing WLS fibers. By default
this is not part of the geometry. Enabling it will place it behind the LXe
scintillator volume.
/LXe/detector/volumes/lxe <bool>
-Enables/disables the main LXe scintillator volume. By default this is part of
the geometry.
examples/extended/optical/LXe/include/LXeHistoManager.hh
+1 -4
View File
@@ -35,10 +35,7 @@
#define LXeHistoManager_h 1
#include "globals.hh"
#include "g4root.hh"
//#include "g4xml.hh"
//#include "g4csv.hh"
#include "G4AnalysisManager.hh"
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
examples/extended/optical/LXe/src/LXeHistoManager.cc
+2 -3
View File
@@ -43,16 +43,15 @@ LXeHistoManager::LXeHistoManager()
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
LXeHistoManager::~LXeHistoManager() { delete G4AnalysisManager::Instance(); }
LXeHistoManager::~LXeHistoManager() {}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void LXeHistoManager::Book()
{
// Create or get analysis manager
// The choice of analysis technology is done via selection of a namespace
// in LXeHistoManager.hh
G4AnalysisManager* analysisManager = G4AnalysisManager::Instance();
analysisManager->SetDefaultFileType("root");
analysisManager->SetFileName(fFileName);
analysisManager->SetVerboseLevel(1);
analysisManager->SetActivation(true); // enable inactivation of histograms
examples/extended/optical/OpNovice/.README.txt
-124
View File
@@ -1,124 +0,0 @@
///\file "optical/OpNovice/.README.txt"
///\brief Example OpNovice README page
/*! \page ExampleOpNovice Example OpNovice
This example presently illustrates the following basic concepts, and in
particular (indicated with ***), how to use G4 for optical photon
generation and transport. Other extended example of what is possible
in Geant4 with optical photons can be found at
examples/extended/optical/LXe and wls
\section ExampleOpNovice_s1 main()
Define Random Number generator initial seed
\section ExampleOpNovice_s2 G4OpticalPhysics
The G4OpticalPhysics physics class is used. The messenger is the
G4OpticalParametersMessenger class.
- Define particles; including - *** G4OpticalPhoton ***
- Define processes; including
- *** G4Cerenkov ***
- *** G4Scintillation ***
- *** G4OpAbsorption ***
- *** G4OpRayleigh ***
- *** G4OpBoundaryProcess ***
A messenger command allows to define interactively the
verbose level and the maximum number of Cerenkov photons per step
(see for instance OpNovice.in)
\section ExampleOpNovice_s3 G4VUserDetectorConstruction
- Define material: Air and Water
- Define simple G4box geometry
- *** add G4MaterialPropertiesTable to G4Material ***
- *** define G4LogicalSurface(s) ***
- *** define G4OpticalSurface ***
- *** add G4MaterialPropertiesTable to G4OpticalSurface ***
alternatively the Configuration can be read from a gdml file.
The provided gdml file NoviceExample.gdml corresponds to the detector
defined in OpNoviceDetectorConstruction.
\section ExampleOpNovice_s4 G4VUserPrimaryGeneratorAction
Use G4ParticleGun to shoot a charge particle into a Cerenkov radiator
A messenger command allows to define interactively the polarization of an
primary optical photon (see for instance optPhoton.mac)
\section ExampleOpNovice_s5 G4UserRunAction and G4Run
- Used to accumulate statistics.
\section ExampleOpNovice_s6 G4UserStackingAction and G4UserEventAction
Show how to count the number of secondary particles in an event
\section ExampleOpNovice_s7 Visualisation
The Visualization Manager is set in the main().
The initialisation of the drawing is done via a set of /vis/ commands
in the macro vis.mac. This macro is automatically read from
the main in case of interactive running mode.
The detector has a default view which is a longitudinal view of the tank.
The tracks are drawn at the end of event, and erased at the end of run.
\section ExampleOpNovice_s8 How to start
- compile and link to generate an executable
This example handles the program arguments in a new way.
It can be run with the following optional arguments:
\verbatim
$ OpNovice [-g gdmlfile] [-m macro ] [-u UIsession] [-t nThreads]
\endverbatim
The -t option is available only in multi-threading mode
and it allows the user to override the Geant4 default number of
threads. The number of threads can be also set via G4FORCENUMBEROFTHREADS
environment variable which has the top priority.
- execute OpNovice in 'batch' mode from macro files
\verbatim
$ OpNovice -m OpNovice.in
\endverbatim
- execute OpNovice in 'batch' mode from macro files using a gdml file
to define the geometry
$ OpNovice -g NoviceExample.gdml -m OpNovice.in
- execute OpNovice in 'interactive mode' with visualization
\verbatim
$ OpNovice
....
Idle> type your commands. For instance:
Idle> /control/execute optPhoton.mac
....
Idle> exit
\endverbatim
Macros
------
The following macros are provided:
optPhoton.mac: Shoot optical photons with energy 3 eV
OpNovice.in: Shoot positrons with energy 500 keV.
gui.mac: Configure the graphical user interface.
vis.mac: Configure visualization.
gdml files
----------
NoviceExample.gdml: example gdml file corresponding to
OpNoviceDetectorConstruction
*/
examples/extended/optical/OpNovice/CMakeLists.txt
+1 -1
View File
@@ -1,6 +1,6 @@
#----------------------------------------------------------------------------
# Setup the project
cmake_minimum_required(VERSION 3.12...3.20)
cmake_minimum_required(VERSION 3.16...3.21)
project(OpNovice)
#add_definitions(-DGEANT4_USE_GDML)
add_compile_definitions(GEANT4_USE_GDML)
examples/extended/optical/OpNovice/History
+14
View File
@@ -13,6 +13,20 @@ track of all tags.
----------------------------------------------------------
* Reverse chronological order (last date on top), please *
----------------------------------------------------------
October 15, 2021 D. Sawkey (OpNovice-V10-07-06)
- remove OpNoviceGDMLDetectorMessenger: use OpNoviceDetectorMessenger instead
- rename class variables to start with f
- test user-defined material properties with exceptions instead of assert
October 7, 2021 D. Sawkey (OpNovice-V10-07-05)
- OpNoviceDetectorConstruction - add tests of user-defined material
properties; add one material property using C-style arrays (as a test)
July 19, 2021 V. Ivanchenko (OpNovice-V10-07-04)
- OpNoviceDetectorConstruction - use modified interface to
G4MaterialPropertiesTable with spline flag
June 9, 2021 H. Wenzel (OpNovice-V10-07-03)
- add option to define detector via a gdml file
- add outer world volume to avoid surfaces including world volume.
examples/extended/optical/OpNovice/OpNovice.cc
+116 -104
View File
@@ -41,9 +41,10 @@
// Author: Juliet Armstrong
//
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
#include "OpNoviceDetectorConstruction.hh"
#ifdef GEANT4_USE_GDML
#include "OpNoviceGDMLDetectorConstruction.hh"
# include "OpNoviceGDMLDetectorConstruction.hh"
#endif
#include "OpNoviceActionInitialization.hh"
#include "FTFP_BERT.hh"
@@ -56,122 +57,133 @@
#include "G4VisExecutive.hh"
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
namespace {
void PrintUsage() {
G4cerr << " Usage: " << G4endl;
namespace
{
void PrintUsage()
{
G4cerr << " Usage: " << G4endl;
#ifdef GEANT4_USE_GDML
G4cerr << " OpNovice [-g gdmlfile] [-m macro ] [-u UIsession] [-t nThreads] [-r seed] "
<< G4endl;
#else
G4cerr << " OpNovice [-m macro ] [-u UIsession] [-t nThreads] [-r seed] "
<< G4endl;
G4cerr << " OpNovice [-g gdmlfile] [-m macro ] [-u UIsession] [-t "
"nThreads] [-r seed] "
<< G4endl;
#else
G4cerr << " OpNovice [-m macro ] [-u UIsession] [-t nThreads] [-r seed] "
<< G4endl;
#endif
G4cerr << " note: -t option is available only for multi-threaded mode."
<< G4endl;
}
} // namespace
G4cerr << " note: -t option is available only for multi-threaded mode."
<< G4endl;
}
} // namespace
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
int main(int argc, char** argv) {
// Evaluate arguments
//
if (argc > 9) {
PrintUsage();
return 1;
}
#ifdef GEANT4_USE_GDML
G4String gdmlfile = "";
#endif
G4String macro;
G4String session;
int main(int argc, char** argv)
{
// Evaluate arguments
//
if(argc > 9)
{
PrintUsage();
return 1;
}
G4String gdmlfile = "";
G4String macro;
G4String session;
#ifdef G4MULTITHREADED
G4int nThreads = 0;
G4int nThreads = 0;
#endif
G4long myseed = 345354;
for (G4int i = 1; i < argc; i = i + 2) {
#ifdef GEANT4_USE_GDML
if (G4String(argv[i]) == "-g") gdmlfile = argv[i + 1];
else if (G4String(argv[i]) == "-m") macro = argv[i + 1];
else if (G4String(argv[i]) == "-u") session = argv[i + 1];
else if (G4String(argv[i]) == "-r") myseed = atoi(argv[i + 1]);
#else
if (G4String(argv[i]) == "-m") macro = argv[i + 1];
else if (G4String(argv[i]) == "-u") session = argv[i + 1];
else if (G4String(argv[i]) == "-r") myseed = atoi(argv[i + 1]);
#endif
G4long myseed = 345354;
for(G4int i = 1; i < argc; i = i + 2)
{
if(G4String(argv[i]) == "-g")
gdmlfile = argv[i + 1];
else if(G4String(argv[i]) == "-m")
macro = argv[i + 1];
else if(G4String(argv[i]) == "-u")
session = argv[i + 1];
else if(G4String(argv[i]) == "-r")
myseed = atoi(argv[i + 1]);
#ifdef G4MULTITHREADED
else if (G4String(argv[i]) == "-t") {
nThreads = G4UIcommand::ConvertToInt(argv[i + 1]);
}
#endif
else {
PrintUsage();
return 1;
}
}
// Instantiate G4UIExecutive if interactive mode
G4UIExecutive* ui = nullptr;
if (macro.size() == 0) {
ui = new G4UIExecutive(argc, argv);
}
// Construct the default run manager
auto runManager = G4RunManagerFactory::CreateRunManager();
#ifdef G4MULTITHREADED
if (nThreads > 0)
runManager->SetNumberOfThreads(nThreads);
#endif
// Seed the random number generator manually
G4Random::setTheSeed(myseed);
// Set mandatory initialization classes
//
// Detector construction
#ifdef GEANT4_USE_GDML
if (gdmlfile == "") {
G4cout << "no gdml file specified" << G4endl;
runManager->SetUserInitialization(new OpNoviceDetectorConstruction());
} else {
runManager->SetUserInitialization(new OpNoviceGDMLDetectorConstruction(gdmlfile));
}
#else
runManager->SetUserInitialization(new OpNoviceDetectorConstruction());
#endif
// Physics list
G4VModularPhysicsList* physicsList = new FTFP_BERT;
physicsList->ReplacePhysics(new G4EmStandardPhysics_option4());
G4OpticalPhysics* opticalPhysics = new G4OpticalPhysics();
physicsList->RegisterPhysics(opticalPhysics);
runManager->SetUserInitialization(physicsList);
runManager->SetUserInitialization(new OpNoviceActionInitialization());
G4VisManager* visManager = new G4VisExecutive("Quiet");
visManager->Initialize();
G4UImanager* UImanager = G4UImanager::GetUIpointer();
if (macro.size()) {
G4String command = "/control/execute ";
UImanager->ApplyCommand(command + macro);
} else // Define UI session for interactive mode
else if(G4String(argv[i]) == "-t")
{
UImanager->ApplyCommand("/control/execute vis.mac");
if (ui->IsGUI())
UImanager->ApplyCommand("/control/execute gui.mac");
ui->SessionStart();
delete ui;
nThreads = G4UIcommand::ConvertToInt(argv[i + 1]);
}
#endif
else
{
PrintUsage();
return 1;
}
}
delete visManager;
delete runManager;
// Instantiate G4UIExecutive if interactive mode
G4UIExecutive* ui = nullptr;
if(macro.size() == 0)
{
ui = new G4UIExecutive(argc, argv);
}
return 0;
// Construct the default run manager
auto runManager = G4RunManagerFactory::CreateRunManager();
#ifdef G4MULTITHREADED
if(nThreads > 0)
runManager->SetNumberOfThreads(nThreads);
#endif
// Seed the random number generator manually
G4Random::setTheSeed(myseed);
// Set mandatory initialization classes
//
// Detector construction
if(gdmlfile != "")
{
#ifdef GEANT4_USE_GDML
runManager->SetUserInitialization(
new OpNoviceGDMLDetectorConstruction(gdmlfile));
#else
G4cout << "Error! Input gdml file specified, but Geant4 wasn't" << G4endl
<< "built with gdml support." << G4endl;
return 1;
#endif
}
else
{
runManager->SetUserInitialization(new OpNoviceDetectorConstruction());
}
// Physics list
G4VModularPhysicsList* physicsList = new FTFP_BERT;
physicsList->ReplacePhysics(new G4EmStandardPhysics_option4());
G4OpticalPhysics* opticalPhysics = new G4OpticalPhysics();
physicsList->RegisterPhysics(opticalPhysics);
runManager->SetUserInitialization(physicsList);
runManager->SetUserInitialization(new OpNoviceActionInitialization());
G4VisManager* visManager = new G4VisExecutive("Quiet");
visManager->Initialize();
G4UImanager* UImanager = G4UImanager::GetUIpointer();
if(macro.size())
{
G4String command = "/control/execute ";
UImanager->ApplyCommand(command + macro);
}
else // Define UI session for interactive mode
{
UImanager->ApplyCommand("/control/execute vis.mac");
if(ui->IsGUI())
UImanager->ApplyCommand("/control/execute gui.mac");
ui->SessionStart();
delete ui;
}
delete visManager;
delete runManager;
return 0;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
examples/extended/optical/OpNovice/OpNovice.in
+2 -2
View File
@@ -4,8 +4,8 @@
/run/verbose 1
/control/cout/ignoreThreadsExcept 0
#
/OpNovice/DetectorConstruction/enable_verbose false
/OpNovice/DetectorConstruction/dumpgdml false
/OpNovice/DetectorConstruction/enableVerbose true
/OpNovice/DetectorConstruction/dumpGdml false
/run/initialize
#
/gun/particle e+
examples/extended/optical/OpNovice/OpNovice.out
+11012 -11042
View File
File diff suppressed because it is too large Load Diff
examples/extended/optical/OpNovice/README
-124
View File
@@ -1,124 +0,0 @@
-------------------------------------------------------------------
=========================================================
Geant4 - an Object-Oriented Toolkit for Simulation in HEP
=========================================================
OpNovice
--------
This example presently illustrates the following basic concepts, and in
particular (indicated with ***), how to use G4 for optical photon
generation and transport. Other extended example of what is possible
in Geant4 with optical photons can be found at
examples/extended/optical/LXe and wls.
main()
------
==> define Random Number generator initial seed
G4Optical Physics
-----------------
The G4OpticalPhysics physics class is used. The messenger is the
G4OpticalParametersMessenger class.
==> define particles; including *** G4OpticalPhoton ***
define processes; including *** G4Cerenkov ***
*** G4Scintillation ***
*** G4OpAbsorption ***
*** G4OpRayleigh ***
*** G4OpBoundaryProcess ***
==> A messenger command allows to define interactively the
verbose level and the maximum number of Cerenkov photons per step
(see for instance OpNovice.in)
G4VUserDetectorConstruction
---------------------------
==> define material: Air and Water
define simple G4box geometry
*** add G4MaterialPropertiesTable to G4Material ***
*** define G4LogicalSurface(s) ***
*** define G4OpticalSurface ***
*** add G4MaterialPropertiesTable to G4OpticalSurface ***
alternatively the Configuration can be read from a gdml file.
The provided gdml file NoviceExample.gdml corresponds to the detector
defined in OpNoviceDetectorConstruction.
G4VUserPrimaryGeneratorAction
-----------------------------
==> Use G4ParticleGun to shoot a charge particle into a Cerenkov radiator
==> A messenger command allows to define interactively the polarization of an
primary optical photon (see for instance optPhoton.mac)
G4UserRunAction and G4Run
-------------------------
Used to accumulate statistics.
G4UserStackingAction and G4UserEventAction
------------------------------------------
==> show how to count the number of secondary particles in an event
Visualisation
-------------
The Visualization Manager is set in the main().
The initialisation of the drawing is done via a set of /vis/ commands
in the macro vis.mac. This macro is automatically read from
the main in case of interactive running mode.
The detector has a default view which is a longitudinal view of the tank.
The tracks are drawn at the end of event, and erased at the end of run.
HOW TO START
------------
- compile and link to generate an executable
This example handles the program arguments in a new way.
It can be run with the following optional optionaarguments:
$ OpNovice [-g gdmlfile] [-m macro ] [-u UIsession] [-t nThreads]
The -t option is available only in multi-threading mode
and it allows the user to override the Geant4 default number of
threads. The number of threads can be also set via G4FORCENUMBEROFTHREADS
environment variable which has the top priority.
- execute OpNovice in 'batch' mode from macro files
$ OpNovice -m OpNovice.in
- execute OpNovice in 'batch' mode from macro files using a gdml file
to define the geometry
$ OpNovice -g NoviceExample.gdml -m OpNovice.in
- execute OpNovice in 'interactive mode' with visualization
$ OpNovice
....
Idle> type your commands. For instance:
Idle> /control/execute optPhoton.mac
....
Idle> exit
Macros
------
The following macros are provided:
optPhoton.mac: Shoot optical photons with energy 3 eV
OpNovice.in: Shoot positrons with energy 500 keV.
gui.mac: Configure the graphical user interface.
vis.mac: Configure visualization.ls
gdml files
----------
NoviceExample.gdml: example gdml file corresponding to
OpNoviceDetectorConstruction
examples/extended/optical/OpNovice/include/OpNoviceDetectorConstruction.hh
+18 -16
View File
@@ -26,9 +26,6 @@
/// \file OpNovice/include/OpNoviceDetectorConstruction.hh
/// \brief Definition of the OpNoviceDetectorConstruction class
//
//
//
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
#ifndef OpNoviceDetectorConstruction_h
@@ -38,25 +35,33 @@
#include "G4VUserDetectorConstruction.hh"
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
class OpNoviceDetectorConstructionMessenger;
class OpNoviceDetectorMessenger;
class OpNoviceDetectorConstruction : public G4VUserDetectorConstruction
{
public:
OpNoviceDetectorConstruction();
~OpNoviceDetectorConstruction();
G4VPhysicalVolume* Construct() override;
void SetDumpgdml(G4bool dumpgdml);
G4bool IsDumpgdml() const;
void SetDumpGdml(G4bool);
G4bool IsDumpGdml() const;
void SetVerbose(G4bool verbose);
G4bool IsVerbose() const;
void SetDumpgdmlFile(G4String DumpgdmlFile);
G4String GetDumpgdmlFile() const;
private:
void SetDumpGdmlFile(G4String);
G4String GetDumpGdmlFile() const;
private:
void PrintError(G4String);
OpNoviceDetectorMessenger* fDetectorMessenger;
G4String fDumpGdmlFileName;
G4double fWorld_x;
G4double fWorld_y;
G4double fWorld_z;
G4double fExpHall_x;
G4double fExpHall_y;
G4double fExpHall_z;
@@ -69,11 +74,8 @@ class OpNoviceDetectorConstruction : public G4VUserDetectorConstruction
G4double fBubble_y;
G4double fBubble_z;
G4String DumpgdmlFile;
G4bool verbose;
G4bool dumpgdml;
OpNoviceDetectorConstructionMessenger* fDetectorMessenger;
G4bool fVerbose;
G4bool fDumpGdml;
};
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
examples/extended/optical/OpNovice/include/OpNoviceDetectorConstructionMessenger.hh → examples/extended/optical/OpNovice/include/OpNoviceDetectorMessenger.hh
+13 -15
View File
@@ -23,39 +23,37 @@
// * acceptance of all terms of the Geant4 Software license. *
// ********************************************************************
//
/// \file OpNovice/include/OpNoviceDetectorConstructionMessenger.hh
/// \brief Definition of the OpNoviceDetectorConstructionMessenger class
/// \file OpNovice/include/OpNoviceDetectorMessenger.hh
/// \brief Definition of the OpNoviceDetectorMessenger class
//
//
//
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
#ifndef OpNoviceDetectorConstructionMessenger_h
#define OpNoviceDetectorConstructionMessenger_h 1
#ifndef OpNoviceDetectorMessenger_h
#define OpNoviceDetectorMessenger_h 1
#include "globals.hh"
#include "G4UImessenger.hh"
class OpNoviceDetectorConstruction;
class G4VUserDetectorConstruction;
class G4UIdirectory;
class G4UIcmdWithABool;
class G4UIcmdWithAString;
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
class OpNoviceDetectorConstructionMessenger : public G4UImessenger {
class OpNoviceDetectorMessenger : public G4UImessenger {
public:
OpNoviceDetectorConstructionMessenger(OpNoviceDetectorConstruction*);
~OpNoviceDetectorConstructionMessenger();
OpNoviceDetectorMessenger(G4VUserDetectorConstruction*);
~OpNoviceDetectorMessenger();
void SetNewValue(G4UIcommand*, G4String) override;
private:
OpNoviceDetectorConstruction* fOpNoviceDetCon;
G4VUserDetectorConstruction* fOpNoviceDetCon;
G4UIdirectory* fDetConDir;
G4UIcmdWithABool* fverboseCmd;
G4UIcmdWithABool* fdumpGdmlCmd;
G4UIcmdWithAString* fdumpGdmlFileNameCmd;
G4UIcmdWithABool* fVerboseCmd;
G4UIcmdWithABool* fDumpGdmlCmd;
G4UIcmdWithAString* fDumpGdmlFileNameCmd;
};
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
#endif
examples/extended/optical/OpNovice/include/OpNoviceGDMLDetectorConstruction.hh
+31 -26
View File
@@ -25,37 +25,42 @@
//
#ifndef OpNoviceGDMLDetectorConstruction_h
#define OpNoviceGDMLDetectorConstruction_h 1
#include "G4VUserDetectorConstruction.hh"
class G4GDMLParser;
class OpNoviceGDMLDetectorConstructionMessenger;
class OpNoviceDetectorMessenger;
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
class OpNoviceGDMLDetectorConstruction : public G4VUserDetectorConstruction {
public:
OpNoviceGDMLDetectorConstruction(G4String fname);
virtual ~OpNoviceGDMLDetectorConstruction();
void ReadGDML();
virtual G4VPhysicalVolume* Construct();
virtual void ConstructSDandField();
void UpdateGeometry();
void SetDumpgdml(G4bool fdumpgdml);
G4bool IsDumpgdml() const;
void SetVerbose(G4bool fverbose);
G4bool IsVerbose() const;
void SetDumpgdmlFile(G4String fDumpgdmlFile);
G4String GetDumpgdmlFile() const;
class OpNoviceGDMLDetectorConstruction : public G4VUserDetectorConstruction
{
public:
OpNoviceGDMLDetectorConstruction(G4String fname);
virtual ~OpNoviceGDMLDetectorConstruction();
private:
OpNoviceGDMLDetectorConstruction & operator=(const OpNoviceGDMLDetectorConstruction &right);
OpNoviceGDMLDetectorConstruction(const OpNoviceGDMLDetectorConstruction&);
G4GDMLParser *parser;
G4String gdmlFile;
//
G4String fDumpgdmlFile;
G4bool fverbose;
G4bool fdumpgdml;
OpNoviceGDMLDetectorConstructionMessenger* fDetectorMessenger;
void ReadGDML();
virtual G4VPhysicalVolume* Construct();
virtual void ConstructSDandField();
void UpdateGeometry();
void SetDumpGdml(G4bool);
G4bool IsDumpGdml() const;
void SetVerbose(G4bool fverbose);
G4bool IsVerbose() const;
void SetDumpGdmlFile(G4String fDumpGdmlFile);
G4String GetDumpGdmlFileName() const;
private:
OpNoviceGDMLDetectorConstruction& operator=(
const OpNoviceGDMLDetectorConstruction& right);
OpNoviceGDMLDetectorConstruction(const OpNoviceGDMLDetectorConstruction&);
OpNoviceDetectorMessenger* fDetectorMessenger;
G4GDMLParser* fParser;
G4String fGdmlFile;
G4String fDumpGdmlFileName;
G4bool fVerbose;
G4bool fDumpGdml;
};
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo.....
#endif
examples/extended/optical/OpNovice/include/OpNoviceGDMLDetectorConstructionMessenger.hh
-55
View File
@@ -1,55 +0,0 @@
//
// ********************************************************************
// * License and Disclaimer *
// * *
// * The Geant4 software is copyright of the Copyright Holders of *
// * the Geant4 Collaboration. It is provided under the terms and *
// * conditions of the Geant4 Software License, included in the file *
// * LICENSE and available at http://cern.ch/geant4/license . These *
// * include a list of copyright holders. *
// * *
// * Neither the authors of this software system, nor their employing *
// * institutes,nor the agencies providing financial support for this *
// * work make any representation or warranty, express or implied, *
// * regarding this software system or assume any liability for its *
// * use. Please see the license in the file LICENSE and URL above *
// * for the full disclaimer and the limitation of liability. *
// * *
// * This code implementation is the result of the scientific and *
// * technical work of the GEANT4 collaboration. *
// * By using, copying, modifying or distributing the software (or *
// * any work based on the software) you agree to acknowledge its *
// * use in resulting scientific publications, and indicate your *
// * acceptance of all terms of the Geant4 Software license. *
// ********************************************************************
//
/// \file OpNovice/include/OpNoviceGDMLDetectorConstructionMessenger.hh
/// \brief Definition of the OpNoviceGDMLDetectorConstructionMessenger class
//
//
//
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
#ifndef OpNoviceGDMLDetectorConstructionMessenger_h
#define OpNoviceGDMLDetectorConstructionMessenger_h 1
#include "globals.hh"
#include "G4UImessenger.hh"
class OpNoviceGDMLDetectorConstruction;
class G4UIdirectory;
class G4UIcmdWithABool;
class G4UIcmdWithAString;
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
class OpNoviceGDMLDetectorConstructionMessenger : public G4UImessenger {
public:
OpNoviceGDMLDetectorConstructionMessenger(OpNoviceGDMLDetectorConstruction*);
~OpNoviceGDMLDetectorConstructionMessenger();
virtual void SetNewValue(G4UIcommand*, G4String) override;
private:
OpNoviceGDMLDetectorConstruction* fOpNoviceDetCon;
G4UIdirectory* fDetConDir;
G4UIcmdWithABool* verboseCmd;
G4UIcmdWithABool* dumpGdmlCmd;
G4UIcmdWithAString* dumpGdmlFileNameCmd;
};
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
#endif
examples/extended/optical/OpNovice/include/OpNoviceRun.hh
+2 -2
View File
@@ -83,6 +83,8 @@ class OpNoviceRun : public G4Run
void EndOfRun();
private:
G4ParticleDefinition* fParticle;
G4double fCerenkovCounter;
G4double fCerenkov2;
G4double fScintillationCounter;
@@ -95,8 +97,6 @@ class OpNoviceRun : public G4Run
G4double fMie2;
G4double fBoundaryCounter;
G4double fBoundary2;
G4ParticleDefinition* fParticle;
G4double fEnergy;
};
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
examples/extended/optical/OpNovice/src/OpNoviceDetectorConstruction.cc
+132 -54
View File
@@ -26,14 +26,14 @@
/// \file OpNovice/src/OpNoviceDetectorConstruction.cc
/// \brief Implementation of the OpNoviceDetectorConstruction class
//
//
//
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
#include "OpNoviceDetectorConstruction.hh"
#include "OpNoviceDetectorConstructionMessenger.hh"
#include "OpNoviceDetectorMessenger.hh"
#include "G4Box.hh"
#include "G4Element.hh"
#include "G4GDMLParser.hh"
#include "G4LogicalBorderSurface.hh"
#include "G4LogicalSkinSurface.hh"
#include "G4LogicalVolume.hh"
@@ -42,17 +42,16 @@
#include "G4PVPlacement.hh"
#include "G4SystemOfUnits.hh"
#include "G4ThreeVector.hh"
#include "G4GDMLParser.hh"
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
OpNoviceDetectorConstruction::OpNoviceDetectorConstruction()
: G4VUserDetectorConstruction()
{
DumpgdmlFile = "OpNovice_dump.gdml";
verbose = false;
dumpgdml = false;
fDumpGdmlFileName = "OpNovice_dump.gdml";
fVerbose = false;
fDumpGdml = false;
// create a messenger for this class
fDetectorMessenger = new OpNoviceDetectorConstructionMessenger(this);
fDetectorMessenger = new OpNoviceDetectorMessenger(this);
fWorld_x = fWorld_y = fWorld_z = 15.0 * m;
fExpHall_x = fExpHall_y = fExpHall_z = 10.0 * m;
fTank_x = fTank_y = fTank_z = 5.0 * m;
@@ -60,7 +59,10 @@ OpNoviceDetectorConstruction::OpNoviceDetectorConstruction()
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
OpNoviceDetectorConstruction::~OpNoviceDetectorConstruction() {}
OpNoviceDetectorConstruction::~OpNoviceDetectorConstruction()
{
delete fDetectorMessenger;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4VPhysicalVolume* OpNoviceDetectorConstruction::Construct()
@@ -69,21 +71,22 @@ G4VPhysicalVolume* OpNoviceDetectorConstruction::Construct()
// ------------- Materials -------------
G4double a, z, density;
G4int nelements;
// Air
//
G4Element* N = new G4Element("Nitrogen", "N", z = 7, a = 14.01 * g / mole);
G4Element* O = new G4Element("Oxygen", "O", z = 8, a = 16.00 * g / mole);
G4Material* air =
new G4Material("Air", density = 1.29 * mg / cm3, nelements = 2);
air->AddElement(N, 70. * perCent);
air->AddElement(O, 30. * perCent);
// Water
//
// Water
G4Element* H = new G4Element("Hydrogen", "H", z = 1, a = 1.01 * g / mole);
G4Material* water =
new G4Material("Water", density = 1.0 * g / cm3, nelements = 2);
water->AddElement(H, 2);
water->AddElement(O, 1);
// ------------ Generate & Add Material Properties Table ------------
//
std::vector<G4double> photonEnergy = {
@@ -94,8 +97,8 @@ G4VPhysicalVolume* OpNoviceDetectorConstruction::Construct()
3.353 * eV, 3.446 * eV, 3.545 * eV, 3.649 * eV, 3.760 * eV, 3.877 * eV,
4.002 * eV, 4.136 * eV
};
// Water
//
std::vector<G4double> refractiveIndex1 = {
1.3435, 1.344, 1.3445, 1.345, 1.3455, 1.346, 1.3465, 1.347,
1.3475, 1.348, 1.3485, 1.3492, 1.35, 1.3505, 1.351, 1.3518,
@@ -110,21 +113,25 @@ G4VPhysicalVolume* OpNoviceDetectorConstruction::Construct()
30.000 * m, 28.500 * m, 27.000 * m, 24.500 * m, 22.000 * m, 19.500 * m,
17.500 * m, 14.500 * m
};
std::vector<G4double> scintilFast = {
1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00,
1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00,
1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00
};
// Material properties can be added as arrays. However, in this case it is
// up to the user to make sure both arrays have the same number of elements.
G4double scintilFastArray[]{ 1.0, 1.0 };
G4double energyArray[]{ 2.034 * eV, 4.136 * eV };
G4int lenArray = 2;
std::vector<G4double> scintilSlow = {
0.01, 1.00, 2.00, 3.00, 4.00, 5.00, 6.00, 7.00, 8.00, 9.00, 8.00,
7.00, 6.00, 4.00, 3.00, 2.00, 1.00, 0.01, 1.00, 2.00, 3.00, 4.00,
5.00, 6.00, 7.00, 8.00, 9.00, 8.00, 7.00, 6.00, 5.00, 4.00
};
G4MaterialPropertiesTable* myMPT1 = new G4MaterialPropertiesTable();
// Values can be added to the material property table individually.
// Check that group velocity is calculated from RINDEX
myMPT1->AddProperty("RINDEX", &photonEnergy[0], &refractiveIndex1[0], 1)
->SetSpline(true);
myMPT1->AddProperty("RINDEX", &photonEnergy[0], &refractiveIndex1[0], true,
true);
for(size_t i = 1; i < photonEnergy.size(); ++i)
{
myMPT1->AddEntry("RINDEX", photonEnergy[i], refractiveIndex1[i]);
@@ -138,11 +145,13 @@ G4VPhysicalVolume* OpNoviceDetectorConstruction::Construct()
G4Exception("OpNovice::OpNoviceDetectorConstruction", "OpNovice001",
FatalException, ed);
}
myMPT1->AddProperty("ABSLENGTH", photonEnergy, absorption)->SetSpline(true);
myMPT1->AddProperty("SCINTILLATIONCOMPONENT1", photonEnergy, scintilFast)
->SetSpline(true);
myMPT1->AddProperty("SCINTILLATIONCOMPONENT2", photonEnergy, scintilSlow)
->SetSpline(true);
myMPT1->AddProperty("ABSLENGTH", photonEnergy, absorption, false, true);
// adding property with a C-style array
myMPT1->AddProperty("SCINTILLATIONCOMPONENT1", energyArray, scintilFastArray,
lenArray, false, true);
myMPT1->AddProperty("SCINTILLATIONCOMPONENT2", photonEnergy, scintilSlow,
false, true);
myMPT1->AddConstProperty("SCINTILLATIONYIELD", 50. / MeV);
myMPT1->AddConstProperty("RESOLUTIONSCALE", 1.0);
myMPT1->AddConstProperty("SCINTILLATIONTIMECONSTANT1", 1. * ns);
@@ -184,7 +193,7 @@ G4VPhysicalVolume* OpNoviceDetectorConstruction::Construct()
// gforward, gbackward, forward backward ratio
G4double mie_water_const[3] = { 0.99, 0.99, 0.8 };
myMPT1->AddProperty("MIEHG", energy_water, mie_water)->SetSpline(true);
myMPT1->AddProperty("MIEHG", energy_water, mie_water, false, true);
myMPT1->AddConstProperty("MIEHG_FORWARD", mie_water_const[0]);
myMPT1->AddConstProperty("MIEHG_BACKWARD", mie_water_const[1]);
myMPT1->AddConstProperty("MIEHG_FORWARD_RATIO", mie_water_const[2]);
@@ -198,12 +207,11 @@ G4VPhysicalVolume* OpNoviceDetectorConstruction::Construct()
water->GetIonisation()->SetBirksConstant(0.126 * mm / MeV);
// Air
//
std::vector<G4double> refractiveIndex2 = {
1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00,
1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00,
1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00, 1.00
};
std::vector<G4double> refractiveIndex2 = { 1.0, 1.0, 1.0, 1.0, 1.0, 1.0, 1.0,
1.0, 1.0, 1.0, 1.0, 1.0, 1.0, 1.0,
1.0, 1.0, 1.0, 1.0, 1.0, 1.0, 1.0,
1.0, 1.0, 1.0, 1.0, 1.0, 1.0, 1.0,
1.0, 1.0, 1.0, 1.0 };
G4MaterialPropertiesTable* myMPT2 = new G4MaterialPropertiesTable();
myMPT2->AddProperty("RINDEX", photonEnergy, refractiveIndex2);
@@ -221,30 +229,31 @@ G4VPhysicalVolume* OpNoviceDetectorConstruction::Construct()
new G4LogicalVolume(world_box, air, "World", 0, 0, 0);
G4VPhysicalVolume* world_phys = new G4PVPlacement(
0, G4ThreeVector(), world_log, "world", 0, false, 0, checkOverlaps);
// The experimental Hall
//
G4Box* expHall_box = new G4Box("expHall", fExpHall_x, fExpHall_y, fExpHall_z);
G4LogicalVolume* expHall_log =
new G4LogicalVolume(expHall_box, air, "expHall", 0, 0, 0);
G4VPhysicalVolume* expHall_phys = new G4PVPlacement(
0, G4ThreeVector(), expHall_log, "expHall", world_log, false, 0);
// The Water Tank
//
G4Box* waterTank_box = new G4Box("Tank", fTank_x, fTank_y, fTank_z);
G4LogicalVolume* waterTank_log =
new G4LogicalVolume(waterTank_box, water, "Tank", 0, 0, 0);
G4VPhysicalVolume* waterTank_phys = new G4PVPlacement(
0, G4ThreeVector(), waterTank_log, "Tank", expHall_log, false, 0);
// The Air Bubble
//
G4Box* bubbleAir_box = new G4Box("Bubble", fBubble_x, fBubble_y, fBubble_z);
G4LogicalVolume* bubbleAir_log =
new G4LogicalVolume(bubbleAir_box, air, "Bubble", 0, 0, 0);
new G4PVPlacement(0, G4ThreeVector(0, 2.5 * m, 0), bubbleAir_log, "Bubble",
waterTank_log, false, 0);
// ------------- Surfaces --------------
// Water Tank
//
G4OpticalSurface* opWaterSurface = new G4OpticalSurface("WaterSurface");
opWaterSurface->SetType(dielectric_LUTDAVIS);
opWaterSurface->SetFinish(Rough_LUT);
@@ -260,7 +269,6 @@ G4VPhysicalVolume* OpNoviceDetectorConstruction::Construct()
opticalSurface->DumpInfo();
// Air Bubble
//
G4OpticalSurface* opAirSurface = new G4OpticalSurface("AirSurface");
opAirSurface->SetType(dielectric_dielectric);
opAirSurface->SetFinish(polished);
@@ -286,43 +294,113 @@ G4VPhysicalVolume* OpNoviceDetectorConstruction::Construct()
myST2->AddProperty("REFLECTIVITY", ephoton, reflectivity);
myST2->AddProperty("EFFICIENCY", ephoton, efficiency);
if(verbose)
if(fVerbose)
{
G4cout << "Air Surface G4MaterialPropertiesTable:" << G4endl;
myST2->DumpTable();
}
opAirSurface->SetMaterialPropertiesTable(myST2);
if(dumpgdml)
if(fDumpGdml)
{
G4GDMLParser* parser = new G4GDMLParser();
parser->Write(DumpgdmlFile, world_phys);
parser->Write(fDumpGdmlFileName, world_phys);
}
////////////////////////////////////////////////////////////////////////////
// test user-defined properties
G4String ed;
if(myMPT1->GetProperty("USERDEFINED") != nullptr)
{
ed = "USERDEFINED != nullptr";
PrintError(ed);
}
myMPT1->AddProperty("USERDEFINED", energy_water, mie_water, true, true);
if(myMPT1->GetProperty("USERDEFINED") == nullptr)
{
ed = "USERDEFINED == nullptr";
PrintError(ed);
}
[[maybe_unused]] G4int index_userdefined = -1;
if(myMPT1->GetProperty("USERDEFINED") != nullptr)
{
index_userdefined = myMPT1->GetPropertyIndex("USERDEFINED");
}
if(!(index_userdefined >= 0 &&
index_userdefined <
(G4int) myMPT1->GetMaterialPropertyNames().size()))
{
ed = "USERDEFINED index out of range";
PrintError(ed);
}
myMPT1->RemoveProperty("USERDEFINED");
if(myMPT1->GetProperty("USERDEFINED") != nullptr)
{
ed = "USERDEFINED != nullptr at end";
PrintError(ed);
}
if(myMPT1->ConstPropertyExists("USERDEFINEDCONST") == true)
{
ed = "ConstProperty USERDEFINEDCONST already exists.";
PrintError(ed);
}
myMPT1->AddConstProperty("USERDEFINEDCONST", 3.14, true);
if(myMPT1->ConstPropertyExists("USERDEFINEDCONST") == false)
{
ed = "ConstProperty USERDEFINEDCONST doesn't exist.";
PrintError(ed);
}
[[maybe_unused]] G4int index_pi = -1;
if(myMPT1->ConstPropertyExists("USERDEFINEDCONST") == true)
{
index_pi = myMPT1->GetConstPropertyIndex("USERDEFINEDCONST");
}
if (!(index_pi >= 0 &&
index_pi < (G4int) myMPT1->GetMaterialConstPropertyNames().size()))
{
ed = "ConstProperty USERDEFINEDCONST index out of range.";
PrintError(ed);
}
myMPT1->RemoveConstProperty("USERDEFINEDCONST");
if (myMPT1->ConstPropertyExists("USERDEFINEDCONST") == true)
{
ed = "ConstProperty USERDEFINEDCONST still exists.";
PrintError(ed);
}
// done testing user-defined properties
////////////////////////////////////////////////////////////////////////////
return world_phys;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceDetectorConstruction::SetDumpGdml(G4bool val) { fDumpGdml = val; }
void OpNoviceDetectorConstruction::SetDumpgdml(G4bool dumpgdml1)
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4bool OpNoviceDetectorConstruction::IsDumpGdml() const { return fDumpGdml; }
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceDetectorConstruction::SetVerbose(G4bool val) { fVerbose = val; }
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4bool OpNoviceDetectorConstruction::IsVerbose() const { return fVerbose; }
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceDetectorConstruction::SetDumpGdmlFile(G4String filename)
{
this->dumpgdml = dumpgdml1;
fDumpGdmlFileName = filename;
}
G4bool OpNoviceDetectorConstruction::IsDumpgdml() const { return dumpgdml; }
void OpNoviceDetectorConstruction::SetVerbose(G4bool verbose1)
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4String OpNoviceDetectorConstruction::GetDumpGdmlFile() const
{
this->verbose = verbose1;
return fDumpGdmlFileName;
}
G4bool OpNoviceDetectorConstruction::IsVerbose() const { return verbose; }
void OpNoviceDetectorConstruction::SetDumpgdmlFile(G4String DumpgdmlFile1)
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceDetectorConstruction::PrintError(G4String ed)
{
this->DumpgdmlFile = DumpgdmlFile1;
}
G4String OpNoviceDetectorConstruction::GetDumpgdmlFile() const
{
return DumpgdmlFile;
G4Exception("OpNoviceDetectorConstruction:MaterialProperty test", "op001",
FatalException, ed);
}
examples/extended/optical/OpNovice/src/OpNoviceDetectorConstructionMessenger.cc → examples/extended/optical/OpNovice/src/OpNoviceDetectorMessenger.cc
+51 -37
View File
@@ -23,66 +23,80 @@
// * acceptance of all terms of the Geant4 Software license. *
// ********************************************************************
//
// Geant4 headers
#include "OpNoviceDetectorMessenger.hh"
#include "OpNoviceDetectorConstruction.hh"
#include "OpNoviceGDMLDetectorConstruction.hh"
#include "G4UIdirectory.hh"
#include "G4UIcmdWithABool.hh"
#include "G4UIcmdWithAString.hh"
// project headers
#include "OpNoviceDetectorConstructionMessenger.hh"
#include "OpNoviceDetectorConstruction.hh"
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
OpNoviceDetectorConstructionMessenger::OpNoviceDetectorConstructionMessenger(
OpNoviceDetectorConstruction* detcon)
OpNoviceDetectorMessenger::OpNoviceDetectorMessenger(
G4VUserDetectorConstruction* detcon)
: G4UImessenger()
, fOpNoviceDetCon(detcon)
{
fDetConDir = new G4UIdirectory("/OpNovice/DetectorConstruction/");
fDetConDir->SetGuidance("Configuring Detector Construction");
//
fverboseCmd =
new G4UIcmdWithABool("/OpNovice/DetectorConstruction/enable_verbose", this);
fverboseCmd->SetGuidance("Set flag for enabling verbose diagnostic printout");
fverboseCmd->SetParameterName("enable_verbose", false);
fverboseCmd->SetDefaultValue(false);
fverboseCmd->AvailableForStates(G4State_PreInit);
fdumpGdmlCmd =
new G4UIcmdWithABool("/OpNovice/DetectorConstruction/dumpgdml", this);
fdumpGdmlCmd->SetGuidance(
fVerboseCmd =
new G4UIcmdWithABool("/OpNovice/DetectorConstruction/enableVerbose", this);
fVerboseCmd->SetGuidance("Set flag for enabling verbose diagnostic printout");
fVerboseCmd->SetDefaultValue(false);
fVerboseCmd->AvailableForStates(G4State_PreInit);
fDumpGdmlCmd =
new G4UIcmdWithABool("/OpNovice/DetectorConstruction/dumpGdml", this);
fDumpGdmlCmd->SetGuidance(
"Set flag for enabling dumping the detector to a gdml file");
fdumpGdmlCmd->SetParameterName("dumpgdml", false);
fdumpGdmlCmd->SetDefaultValue(false);
fdumpGdmlCmd->AvailableForStates(G4State_PreInit);
fDumpGdmlCmd->SetDefaultValue(false);
fDumpGdmlCmd->AvailableForStates(G4State_PreInit);
fdumpGdmlFileNameCmd = new G4UIcmdWithAString(
"/OpNovice/DetectorConstruction/DumpGDMLFileName", this);
fdumpGdmlFileNameCmd->SetGuidance("Enter file name to dump gdml file ");
fdumpGdmlFileNameCmd->SetParameterName("GDMLFileName", true);
fdumpGdmlFileNameCmd->SetDefaultValue("OpNovice_dump.gdml");
fdumpGdmlFileNameCmd->AvailableForStates(G4State_PreInit);
fDumpGdmlFileNameCmd = new G4UIcmdWithAString(
"/OpNovice/DetectorConstruction/dumpGdmlFileName", this);
fDumpGdmlFileNameCmd->SetGuidance("Enter file name to dump gdml file ");
fDumpGdmlFileNameCmd->SetDefaultValue("OpNovice_dump.gdml");
fDumpGdmlFileNameCmd->AvailableForStates(G4State_PreInit);
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
OpNoviceDetectorConstructionMessenger::~OpNoviceDetectorConstructionMessenger()
OpNoviceDetectorMessenger::~OpNoviceDetectorMessenger()
{
delete fDetConDir;
delete fverboseCmd;
delete fdumpGdmlCmd;
delete fdumpGdmlFileNameCmd;
delete fVerboseCmd;
delete fDumpGdmlCmd;
delete fDumpGdmlFileNameCmd;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceDetectorConstructionMessenger::SetNewValue(G4UIcommand* command,
G4String newValue)
void OpNoviceDetectorMessenger::SetNewValue(G4UIcommand* command,
G4String newValue)
{
if(command == fverboseCmd)
fOpNoviceDetCon->SetVerbose(fverboseCmd->GetNewBoolValue(newValue));
if(command == fdumpGdmlCmd)
fOpNoviceDetCon->SetDumpgdml(fdumpGdmlCmd->GetNewBoolValue(newValue));
if(command == fdumpGdmlFileNameCmd)
fOpNoviceDetCon->SetDumpgdmlFile(newValue);
OpNoviceDetectorConstruction* dc1 =
dynamic_cast<OpNoviceDetectorConstruction*>(fOpNoviceDetCon);
if(dc1 != nullptr)
{
if(command == fVerboseCmd)
dc1->SetVerbose(fVerboseCmd->GetNewBoolValue(newValue));
if(command == fDumpGdmlCmd)
dc1->SetDumpGdml(fDumpGdmlCmd->GetNewBoolValue(newValue));
if(command == fDumpGdmlFileNameCmd)
dc1->SetDumpGdmlFile(newValue);
}
else
{
OpNoviceGDMLDetectorConstruction* dc2 =
dynamic_cast<OpNoviceGDMLDetectorConstruction*>(fOpNoviceDetCon);
if(command == fVerboseCmd)
dc2->SetVerbose(fVerboseCmd->GetNewBoolValue(newValue));
if(command == fDumpGdmlCmd)
dc2->SetDumpGdml(fDumpGdmlCmd->GetNewBoolValue(newValue));
if(command == fDumpGdmlFileNameCmd)
dc2->SetDumpGdmlFile(newValue);
}
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
examples/extended/optical/OpNovice/src/OpNoviceGDMLDetectorConstruction.cc
+89 -67
View File
@@ -22,96 +22,118 @@
// * use in resulting scientific publications, and indicate your *
// * acceptance of all terms of the Geant4 Software license. *
// ********************************************************************
//
// Geant4 headers
#include "G4RunManager.hh"
#include "G4PhysicalVolumeStore.hh"
#include "G4LogicalVolumeStore.hh"
#include "G4VisAttributes.hh"
#include "G4NistManager.hh"
//
#include "OpNoviceGDMLDetectorConstruction.hh"
#include "OpNoviceDetectorMessenger.hh"
#include "globals.hh"
#include "G4GDMLParser.hh"
// project headers
#include "OpNoviceGDMLDetectorConstruction.hh"
#include "OpNoviceGDMLDetectorConstructionMessenger.hh"
#include "G4LogicalVolumeStore.hh"
#include "G4NistManager.hh"
#include "G4PhysicalVolumeStore.hh"
#include "G4RunManager.hh"
#include "G4VisAttributes.hh"
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
OpNoviceGDMLDetectorConstruction::OpNoviceGDMLDetectorConstruction(G4String fname)
: G4VUserDetectorConstruction() {
fDumpgdmlFile = "OpNovice_dump.gdml";
fverbose = false;
fdumpgdml = false;
gdmlFile = fname;
// create a messenger for this class
fDetectorMessenger = new OpNoviceGDMLDetectorConstructionMessenger(this);
OpNoviceGDMLDetectorConstruction::OpNoviceGDMLDetectorConstruction(
G4String fname)
: G4VUserDetectorConstruction()
{
fDumpGdmlFileName = "OpNovice_dump.gdml";
fVerbose = false;
fDumpGdml = false;
fGdmlFile = fname;
// create a messenger for this class
fDetectorMessenger = new OpNoviceDetectorMessenger(this);
G4cout << "Building detector from GDML file: " << fname << G4endl << G4endl;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
OpNoviceGDMLDetectorConstruction::~OpNoviceGDMLDetectorConstruction() {
delete fDetectorMessenger;
OpNoviceGDMLDetectorConstruction::~OpNoviceGDMLDetectorConstruction()
{
delete fDetectorMessenger;
delete fParser;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4VPhysicalVolume *OpNoviceGDMLDetectorConstruction::Construct() {
ReadGDML();
G4VPhysicalVolume *worldPhysVol = parser->GetWorldVolume();
if (fdumpgdml) parser->Write(fDumpgdmlFile, worldPhysVol);
return worldPhysVol;
G4VPhysicalVolume* OpNoviceGDMLDetectorConstruction::Construct()
{
ReadGDML();
G4VPhysicalVolume* worldPhysVol = fParser->GetWorldVolume();
if(fDumpGdml)
fParser->Write(fDumpGdmlFileName, worldPhysVol);
return worldPhysVol;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceGDMLDetectorConstruction::ConstructSDandField() {
void OpNoviceGDMLDetectorConstruction::ConstructSDandField() {}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceGDMLDetectorConstruction::ReadGDML()
{
fParser = new G4GDMLParser();
fParser->Read(fGdmlFile, false);
G4VPhysicalVolume* world = fParser->GetWorldVolume();
// GDML parser makes world invisible. make it visible again.
G4LogicalVolume* pworldLogical = world->GetLogicalVolume();
pworldLogical->SetVisAttributes(0);
G4cout << world->GetTranslation() << G4endl << G4endl;
if(fVerbose)
{
G4cout << "Found world: " << world->GetName() << G4endl;
G4cout << "world LV: " << world->GetLogicalVolume()->GetName() << G4endl;
}
G4LogicalVolumeStore* pLVStore = G4LogicalVolumeStore::GetInstance();
if(fVerbose)
{
G4cout << "Found " << pLVStore->size() << " logical volumes." << G4endl
<< G4endl;
}
G4PhysicalVolumeStore* pPVStore = G4PhysicalVolumeStore::GetInstance();
if(fVerbose)
{
G4cout << "Found " << pPVStore->size() << " physical volumes." << G4endl
<< G4endl;
}
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceGDMLDetectorConstruction::ReadGDML() {
parser = new G4GDMLParser();
parser->Read(gdmlFile, false);
G4VPhysicalVolume *world = parser->GetWorldVolume();
//----- GDML parser makes world invisible, this is a hack to make it
//visible again...
G4LogicalVolume *pworldLogical = world->GetLogicalVolume();
pworldLogical->SetVisAttributes(0);
G4cout << world->GetTranslation() << G4endl << G4endl;
if (fverbose) {
G4cout << "Found world: " << world-> GetName() << G4endl;
G4cout << "world LV: " << world->GetLogicalVolume()->GetName() << G4endl;
}
G4LogicalVolumeStore *pLVStore = G4LogicalVolumeStore::GetInstance();
if (fverbose) {
G4cout << "Found " << pLVStore->size()
<< " logical volumes."
<< G4endl << G4endl;
}
G4PhysicalVolumeStore *pPVStore = G4PhysicalVolumeStore::GetInstance();
if (fverbose) {
G4cout << "Found " << pPVStore->size()
<< " physical volumes."
<< G4endl << G4endl;
}
void OpNoviceGDMLDetectorConstruction::UpdateGeometry()
{
G4RunManager::GetRunManager()->DefineWorldVolume(Construct());
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceGDMLDetectorConstruction::UpdateGeometry() {
G4RunManager::GetRunManager()->DefineWorldVolume(Construct());
void OpNoviceGDMLDetectorConstruction::SetDumpGdml(G4bool val)
{
fDumpGdml = val;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceGDMLDetectorConstruction::SetDumpgdml(G4bool fdumpgdml1) {
this->fdumpgdml = fdumpgdml1;
G4bool OpNoviceGDMLDetectorConstruction::IsDumpGdml() const
{
return fDumpGdml;
}
G4bool OpNoviceGDMLDetectorConstruction::IsDumpgdml() const {
return fdumpgdml;
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceGDMLDetectorConstruction::SetVerbose(G4bool val)
{
fVerbose = val;
}
void OpNoviceGDMLDetectorConstruction::SetVerbose(G4bool fverbose1) {
this->fverbose = fverbose1;
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4bool OpNoviceGDMLDetectorConstruction::IsVerbose() const { return fVerbose; }
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceGDMLDetectorConstruction::SetDumpGdmlFile(G4String val)
{
fDumpGdmlFileName = val;
}
G4bool OpNoviceGDMLDetectorConstruction::IsVerbose() const {
return fverbose;
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4String OpNoviceGDMLDetectorConstruction::GetDumpGdmlFileName() const
{
return fDumpGdmlFileName;
}
void OpNoviceGDMLDetectorConstruction::SetDumpgdmlFile(G4String fDumpgdmlFile1) {
this->fDumpgdmlFile = fDumpgdmlFile1;
}
G4String OpNoviceGDMLDetectorConstruction::GetDumpgdmlFile() const {
return fDumpgdmlFile;
}
examples/extended/optical/OpNovice/src/OpNoviceGDMLDetectorConstructionMessenger.cc
-87
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@@ -1,87 +0,0 @@
//
// ********************************************************************
// * License and Disclaimer *
// * *
// * The Geant4 software is copyright of the Copyright Holders of *
// * the Geant4 Collaboration. It is provided under the terms and *
// * conditions of the Geant4 Software License, included in the file *
// * LICENSE and available at http://cern.ch/geant4/license . These *
// * include a list of copyright holders. *
// * *
// * Neither the authors of this software system, nor their employing *
// * institutes,nor the agencies providing financial support for this *
// * work make any representation or warranty, express or implied, *
// * regarding this software system or assume any liability for its *
// * use. Please see the license in the file LICENSE and URL above *
// * for the full disclaimer and the limitation of liability. *
// * *
// * This code implementation is the result of the scientific and *
// * technical work of the GEANT4 collaboration. *
// * By using, copying, modifying or distributing the software (or *
// * any work based on the software) you agree to acknowledge its *
// * use in resulting scientific publications, and indicate your *
// * acceptance of all terms of the Geant4 Software license. *
// ********************************************************************
//
// Geant4 headers
#include "G4UIdirectory.hh"
#include "G4UIcmdWithABool.hh"
#include "G4UIcmdWithAString.hh"
// project headers
#include "OpNoviceGDMLDetectorConstructionMessenger.hh"
#include "OpNoviceGDMLDetectorConstruction.hh"
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
OpNoviceGDMLDetectorConstructionMessenger::
OpNoviceGDMLDetectorConstructionMessenger(
OpNoviceGDMLDetectorConstruction* detcon)
: G4UImessenger()
, fOpNoviceDetCon(detcon)
{
fDetConDir = new G4UIdirectory("/OpNovice/DetectorConstruction/");
fDetConDir->SetGuidance("Configuring Detector Construction");
//
verboseCmd =
new G4UIcmdWithABool("/OpNovice/DetectorConstruction/enable_verbose", this);
verboseCmd->SetGuidance("Set flag for enabling verbose diagnostic printout");
verboseCmd->SetParameterName("enable_verbose", false);
verboseCmd->SetDefaultValue(false);
verboseCmd->AvailableForStates(G4State_PreInit);
dumpGdmlCmd =
new G4UIcmdWithABool("/OpNovice/DetectorConstruction/dumpgdml", this);
dumpGdmlCmd->SetGuidance(
"Set flag for enabling dumping the detector to a gdml file");
dumpGdmlCmd->SetParameterName("dumpgdml", false);
dumpGdmlCmd->SetDefaultValue(false);
dumpGdmlCmd->AvailableForStates(G4State_PreInit);
dumpGdmlFileNameCmd = new G4UIcmdWithAString(
"/OpNovice/DetectorConstruction/DumpGDMLFileName", this);
dumpGdmlFileNameCmd->SetGuidance("Enter file name to dump gdml file ");
dumpGdmlFileNameCmd->SetParameterName("GDMLFileName", true);
dumpGdmlFileNameCmd->SetDefaultValue("OpNovice_dump.gdml");
dumpGdmlFileNameCmd->AvailableForStates(G4State_PreInit);
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
OpNoviceGDMLDetectorConstructionMessenger::
~OpNoviceGDMLDetectorConstructionMessenger()
{
delete fDetConDir;
delete verboseCmd;
delete dumpGdmlCmd;
delete dumpGdmlFileNameCmd;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void OpNoviceGDMLDetectorConstructionMessenger::SetNewValue(
G4UIcommand* command, G4String newValue)
{
if(command == verboseCmd)
fOpNoviceDetCon->SetVerbose(verboseCmd->GetNewBoolValue(newValue));
if(command == dumpGdmlCmd)
fOpNoviceDetCon->SetDumpgdml(dumpGdmlCmd->GetNewBoolValue(newValue));
if(command == dumpGdmlFileNameCmd)
fOpNoviceDetCon->SetDumpgdmlFile(newValue);
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
examples/extended/optical/OpNovice/src/OpNoviceStackingAction.cc
+1 -2
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@@ -33,8 +33,7 @@
#include "OpNoviceStackingAction.hh"
#include "OpNoviceRun.hh"
#include "G4ios.hh"
#include "G4ParticleDefinition.hh"
#include "G4ParticleTypes.hh"
#include "G4OpticalPhoton.hh"
#include "G4RunManager.hh"
#include "G4Track.hh"
#include "G4VProcess.hh"
examples/extended/optical/OpNovice2/.README.txt
-158
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@@ -1,158 +0,0 @@
///\file "optical/OpNovice2/.README.txt"
///\brief Example AnaEx01 README page
/*! \page ExampleOpNovice2 Example OpNovice2
Investigate optical properties and parameters. Details of optical
photon boundary interactions on a surface are recorded. Details
of optical photon generation and transport are recorded.
\section OpNovice2_s1 GEOMETRY DEFINITION
The geometry consists of a cube "box" with a side of 2 m inside
the world cube of side 20 m. Optical properties of the box, the world,
and the surface may be set interactively via the commands defined
in the DetectorMessenger class.
Material properties may be added using the macro commands:
- for the box:
\verbatim
/opnovice2/boxProperty NAME EN1 V1 EN2 V2 [ .. ENn Vn]
/opnovice2/boxConstProperty NAME VALUE
\endverbatim
- for the world:
\verbatim
/opnovice2/worldProperty NAME EN1 V1 EN2 V2 [ .. ENn Vn]
/opnovice2/worldConstProperty NAME VALUE
\endverbatim
- for the surface:
\verbatim
/opnovice2/surfaceProperty NAME EN1 V1 EN2 V2 [ .. ENn Vn]
\endverbatim
Multiple energy and value pairs may be specified for the energy-dependent
properties.
Values are in Geant4 internal units. Energy is in MeV.
Example:
\verbatim
/opnovice2/boxProperty RINDEX 0.000002 1.3 0.000005 1.32 0.000008 1.34
\endverbatim
sets the refractive index of the box to 1.3 at 2 eV, 1.32 at 5 eV, and
1.34 at 8 eV.
\section OpNovice2_s2 PHYSICS LIST
The FTFP_BERT physics list is used, with electromagnetic option
EMZ (option4) and G4OpticalPhysics for the optical physics.
\section OpNovice2_s3 AN EVENT : THE PRIMARY GENERATOR
The primary kinematic consists of a single particle. The type of
the particle, its energy, position, and direction, are set
in the PrimaryGeneratorAction class, and can be changed via the G4
build-in commands of G4ParticleGun class (see the macros provided with
this example).
\section OpNovice2_s4 VISUALIZATION
The Visualization Manager is set in the main().
The initialisation of the drawing is done via the commands
/vis/... in the macro vis.mac. To get visualisation:
\verbatim
> /control/execute vis.mac
\endverbatim
or run the program with no command line arguments:
\verbatim
$ ./OpNovice2
\endverbatim
\section OpNovice2_s5 HOW TO START ?
- Execute OpNovice2 in 'batch' mode from macro files
\verbatim
% OpNovice2 electron.mac
\endverbatim
- Execute OpNovice2 in 'interactive mode' with visualization
\verbatim
% OpNovice2
....
Idle> type your commands
....
Idle> exit
\endverbatim
\section OpNovice2_s6 RESULTS
A table of optical photon events is printed at the end of the run.
\section OpNovice2_s7 HISTOGRAMS
OpNovice2 has several predefined 1D histograms :
- 1 : Cerenkov spectrum
- 2 : scintillation spectrum
- 3 : scintillation time (global time)
- 4 : WLS absorption spectrum
- 5 : WLS emission spectrum
- 6 : WLS emission time
- 7 : WLS2 absorption spectrum
- 8 : WLS2 emission spectrum
- 9 : WLS2 emission time
- 10 : boundary process status
- 11 : X momentum dir of scattered photons with px < 0
- 12 : Y momentum dir of scattered photons with px < 0
- 13 : Z momentum dir of scattered photons with px < 0
- 14 : X momentum dir of scattered photons with px >= 0
- 15 : Y momentum dir of scattered photons with px >= 0
- 16 : Z momentum dir of scattered photons with px >= 0
- 17 : X momentum dir of Fresnel-refracted photons
- 18 : Y momentum dir of Fresnel-refracted photons
- 19 : Z momentum dir of Fresnel-refracted photons
- 20 : fraction of photons transmitted at surface
- 21 : fraction of photons reflected at surface
Histograms 11-19 are recorded for photons scattered from the +X
surface of the cube. Only the first interaction is recorded.
The histograms are managed by G4Analysis classes.
The histos can be individually activated with the command :
\verbatim
/analysis/h1/set id nbBins valMin valMax
\endverbatim
The unit is hardcoded to be eV for energy and ns for time.
One can control the name of the histograms file with the command:
\verbatim
/analysis/setFileName name (default opnovice2)
\endverbatim
It is possible to choose the format of the histogram file : root (default),
hbook, xml, csv, by using namespace in HistoManager.hh
It is also possible to print selected histograms on an ascii file:
\verbatim
/analysis/h1/setAscii id
\endverbatim
All selected histos will be written on a file name.ascii (default opnovice2)
\section OpNovice2_s8 MACROS
Several macros are included.
boundary.mac: Set the surface to the various types and configurations of
model, type, etc., shoot optical photons, and record statistics
electron.mac: Shoot electrons and observe Cerenkov and scintillation radiation
fresnel.mac: Shoot optical photons of fixed polarization and random direction
at a surface, and plot reflectance/transmittance vs incident
angle.
OpNovice2.mac: Shoot an optical photon inside a box.
scint_by_particle.mac: Configure scintillation to have particle-specific
yields and yield ratios. Shoot different types of particles.
vis.mac: Configure visualization.
wls.mac: Configure two wavelength-shifting processes, and shoot optical
photons.
*/
examples/extended/optical/OpNovice2/CMakeLists.txt
+1 -1
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@@ -1,6 +1,6 @@
#----------------------------------------------------------------------------
# Setup the project
cmake_minimum_required(VERSION 3.12...3.20)
cmake_minimum_required(VERSION 3.16...3.21)
project(OpNovice2)
#----------------------------------------------------------------------------
examples/extended/optical/OpNovice2/History
+10
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@@ -13,6 +13,16 @@ track of all tags.
* Reverse chronological order (last date on top), please *
----------------------------------------------------------
October 06, 2021 I. Hrivnacova (OpNovice2-V10-07-02)
- Migration to new G4AnalysisManager.hh header;
define the default output file type (root),
use auto for histograms get via GetH1()
July 19, 2021 I. Hrivnacova (OpNovice2-V10-07-01)
- Updated for changes in the analysis category:
removed deleting of the analysis manager,
as this is now done by the Geant4 kernel.
February 24, 2021 D.Sawkey (OpNovice2-V10-07-00)
- replace deprecated optical commands and parameters with new ones
examples/extended/optical/OpNovice2/OpNovice2.out
+268 -191
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File diff suppressed because it is too large Load Diff
examples/extended/optical/OpNovice2/README
-137
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@@ -1,137 +0,0 @@
-------------------------------------------------------------------
==================================================
Geant4 - an Object-Oriented Toolkit for Simulation
==================================================
OpNovice2
---------
Investigate optical properties and parameters. Details of optical
photon boundary interactions on a surface are recorded. Details
of optical photon generation and transport are recorded.
1- GEOMETRY DEFINITION
The geometry consists of a cube "box" with a side of 2 m inside
the world cube of side 20 m. Optical properties of the box, the world,
and the surface may be set interactively via the commands defined
in the DetectorMessenger class.
Material properties may be added using the macro commands:
# for the box:
/opnovice2/boxProperty NAME EN1 V1 EN2 V2 [ .. ENn Vn]
/opnovice2/boxConstProperty NAME VALUE
# for the world:
/opnovice2/worldProperty NAME EN1 V1 EN2 V2 [ .. ENn Vn]
/opnovice2/worldConstProperty NAME VALUE
# for the surface:
/opnovice2/surfaceProperty NAME EN1 V1 EN2 V2 [ .. ENn Vn]
Multiple energy and value pairs may be specified for the energy-dependent
properties.
Values are in Geant4 internal units. Energy is in MeV.
Example:
/opnovice2/boxProperty RINDEX 0.000002 1.3 0.000005 1.32 0.000008 1.34
sets the refractive index of the box to 1.3 at 2 eV, 1.32 at 5 eV, and
1.34 at 8 eV.
2- PHYSICS LIST
The FTFP_BERT physics list is used, with electromagnetic option
EMZ (option4) and G4OpticalPhysics for the optical physics.
3- AN EVENT : THE PRIMARY GENERATOR
The primary kinematic consists of a single particle. The type of
the particle, its energy, position, and direction, are set
in the PrimaryGeneratorAction class, and can be changed via the G4
build-in commands of G4ParticleGun class (see the macros provided with
this example).
4- VISUALIZATION
The Visualization Manager is set in the main().
The initialisation of the drawing is done via the commands
/vis/... in the macro vis.mac. To get visualisation:
> /control/execute vis.mac
or run the program with no command line arguments:
$ ./OpNovice2
5- HOW TO START ?
- Execute OpNovice2 in 'batch' mode from macro files
% OpNovice2 electron.mac
- Execute OpNovice2 in 'interactive mode' with visualization
% OpNovice2
....
Idle> type your commands
....
Idle> exit
6- RESULTS
A table of optical photon events is printed at the end of the run.
7- HISTOGRAMS
OpNovice2 has several predefined 1D histograms :
1 : Cerenkov spectrum
2 : scintillation spectrum
3 : scintillation time (global time)
4 : WLS absorption spectrum
5 : WLS emission spectrum
6 : WLS emission time
7 : WLS2 absorption spectrum
8 : WLS2 emission spectrum
9 : WLS2 emission time
10 : boundary process status
11 : X momentum dir of scattered photons with px < 0
12 : Y momentum dir of scattered photons with px < 0
13 : Z momentum dir of scattered photons with px < 0
14 : X momentum dir of scattered photons with px >= 0
15 : Y momentum dir of scattered photons with px >= 0
16 : Z momentum dir of scattered photons with px >= 0
17 : X momentum dir of Fresnel-refracted photons
18 : Y momentum dir of Fresnel-refracted photons
19 : Z momentum dir of Fresnel-refracted photons
20 : fraction of photons transmitted at surface
21 : fraction of photons reflected at surface
Histograms 11-19 are recorded for photons scattered from the +X
surface of the cube. Only the first interaction is recorded.
The histograms are managed by G4Analysis classes.
The histos can be individually activated with the command:
/analysis/h1/set id nbBins valMin valMax
The unit is hardcoded to be eV for energy and ns for time.
One can control the name of the histograms file with the command:
/analysis/setFileName name (default opnovice2)
It is possible to choose the format of the histogram file : root (default),
hbook, xml, csv, by using namespace in HistoManager.hh
It is also possible to print selected histograms on an ascii file:
/analysis/h1/setAscii id
All selected histos will be written on a file name.ascii (default opnovice2)
8- MACROS
Several macros are included.
boundary.mac: Set the surface to the various types and configurations of
model, type, etc., shoot optical photons, and record statistics
electron.mac: Shoot electrons and observe Cerenkov and scintillation radiation
fresnel.mac: Shoot optical photons of fixed polarization and random direction
at a surface, and plot reflectance/transmittance vs incident
angle.
OpNovice2.mac: Shoot an optical photon inside a box.
scint_by_particle.mac: Configure scintillation to have particle-specific
yields and yield ratios. Shoot different types of particles.
vis.mac: Configure visualization.
wls.mac: Configure two wavelength-shifting processes, and shoot optical
photons.
examples/extended/optical/OpNovice2/include/HistoManager.hh
+1 -4
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@@ -35,10 +35,7 @@
#define HistoManager_h 1
#include "globals.hh"
#include "g4root.hh"
//#include "g4xml.hh"
//#include "g4csv.hh"
#include "G4AnalysisManager.hh"
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
examples/extended/optical/OpNovice2/src/HistoManager.cc
+2 -3
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@@ -45,16 +45,15 @@ HistoManager::HistoManager()
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
HistoManager::~HistoManager() { delete G4AnalysisManager::Instance(); }
HistoManager::~HistoManager() {}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void HistoManager::Book()
{
// Create or get analysis manager
// The choice of analysis technology is done via selection of a namespace
// in HistoManager.hh
G4AnalysisManager* analysisMan = G4AnalysisManager::Instance();
analysisMan->SetDefaultFileType("root");
analysisMan->SetFileName(fFileName);
analysisMan->SetVerboseLevel(1);
analysisMan->SetActivation(true); // enable inactivation of histograms
examples/extended/optical/OpNovice2/src/Run.cc
+2 -2
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@@ -535,8 +535,8 @@ void Run::EndOfRun()
->GetProperty(kRINDEX)
->Value(fEkin);
G4H1* histo_trans = analysisMan->GetH1(histo_id_trans);
G4H1* histo_refl = analysisMan->GetH1(histo_id_refl);
auto histo_trans = analysisMan->GetH1(histo_id_trans);
auto histo_refl = analysisMan->GetH1(histo_id_refl);
std::vector<G4double> trans;
std::vector<G4double> refl;
std::vector<G4double> tot;
examples/extended/optical/README
-34
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@@ -1,34 +0,0 @@
Optical processes
-----------------
This directory includes examples demonstrating the use of optical processes
in the simulation.
OpNovice
--------
Simulation of optical photons generation and transport.
Defines optical surfaces and exercises optical physics processes
(Cerenkov, Scintillation, Absorption, Rayleigh, ...). Uses stacking
mechanism to count the secondary particles generated.
Via the command line one can select an option to define the detector via a
gdml file. An example gdml file is provided that corresponds
to the detector configuration defined in OpNoviceDetectorConstruction.cc.
OpNovice2
--------
Investigate optical properties and parameters. Details of optical
photon boundary interactions on a surface are recorded. Details
of optical photon generation and transport are recorded.
LXe
----
Multi-purpose detector setup implementing:
(1) scintillation inside a bulk scintillator with PMTs
(2) large wall of small PMTs opposite a Cerenkov slab to show the cone
(3) plastic scintillator with wave-length-shifting fiber readout.
WLS
----
This application simulates the propagation of photons inside a Wave Length
Shifting (WLS) fiber.
examples/extended/optical/wls/.README.txt
-103
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@@ -1,103 +0,0 @@
///\file "optical/wls/.README.txt"
///\brief Example wls README page
/*! \page Examplewls Example wls
This application simulates the propagation of photons inside a Wave Length
Shifting (WLS) fiber.
\section Examplewls_s1 Geometry Definition
The default geometry is as follow:
- A perfect, bare, PMMA fiber: 0.5mm radius, 2m length at center(0,0,0)
of the World.
- A circular MPPC with 0.5mm radius at the +z end of the fiber
- World and coupling materials are G4_AIR
- Photons will always refracted out to coupling material before
reaching MPPC
- There are many flexible parameters that the user could specify.
They are under the /WLS directory of help.
\section Examplewls_s2 Material Choices
There are several materials that the user can use for the fiber core,
world and coupling.
They are:
- Vacuum (G4_Galactic)
- Air (G4_AIR)
- PMMA, n = 1.60
- Pethylene, n = 1.49
- FPethylene, n = 1.42
- Polystyrene, n = 1.60
- Silicone, n = 1.46
\section Examplewls_s3 Photon Source
This program uses the General Particle Source (G4GeneralParticleSource)
provided by GEANT4 for
generating photons. The energy of the photon must be within 2.00 eV
to 3.47 eV. For detail instruction on how to use the General Particle
Source, please visit their home page at:
http://reat.space.qinetiq.com/gps/
\section Examplewls_s4 Hit
A hit is registered when the photon is absorbed on the MPPC surface.
Information stored in hit includes the local coordinate of the location
the photon is absorbed on the MPPC, the global coordinate where the
photon left the fiber and the transit time of the photon.
\section Examplewls_s5 Stepping Action
The stepping action keeps track of the number of bounces a photon has
gone through. In order to prevent infinite loop and extremely skewed
rays taking up computing time, there is a limit of the number of
bounces that a photon can go through before it is artificially killed.
The default limit is 100,000. The user can set his/her own limit using
the /stepping/setBounceLimit command. A value of 0 will turn off the
limit. All photons artificially killed will have murderee flag turned
on in their UserTrackInformation.
\section Examplewls_s6 Visualization
To visualize a photon's trajectory, simply use vis.mac macro in
interactive mode or in your own macro.
\section Examplewls_s7 main ()
- Execute wls in 'batch' mode from macro files; \n
you can enter an optional integer seed for batch mode
\verbatim
% wls wls.in (optional: enter an integer seed here)
\endverbatim
- wls in 'interactive mode' with visualization
\verbatim
% wls
....
Idle> /control/execute vis.mac
Idle> /run/beamOn 1
....
Idle> exit
\endverbatim
\section Examplewls_s8 Macros provided
- wls.in: sets up the default geometry and provides the commands to change it.
Primary particle is an optical photon with energy 2.1 eV.
- Sr90.mac: Default geometry is used. Primary particle is a strontium ion.
- vis.mac: macro for visualization; called automatically when no macro is
given on command line.
*/
examples/extended/optical/wls/CMakeLists.txt
+2 -4
View File
@@ -1,6 +1,6 @@
#----------------------------------------------------------------------------
# Setup the project
cmake_minimum_required(VERSION 3.12...3.20)
cmake_minimum_required(VERSION 3.16...3.21)
project(wls)
#----------------------------------------------------------------------------
@@ -40,11 +40,9 @@ target_link_libraries(wls ${Geant4_LIBRARIES} )
# relies on these scripts being in the current working directory.
#
set(wls_SCRIPTS
wls.out
wls.in
gui.mac
Sr90.mac
vis.mac
electron.mac
)
foreach(_script ${wls_SCRIPTS})
examples/extended/optical/wls/History
+18
View File
@@ -15,6 +15,24 @@ track of all tags.
----------------------------------------------------------
Oct 25, 2021 B. Morgan (WLS-V10-07-04)
- Use G4StrUtil functions replacing deprecated G4String member functions
Oct 6, 2021 I. Hrivnacova (WLS-V10-07-03)
- Migration to new G4AnalysisManager.hh header;
define the default output file type (root),
removed WLSAnalysis.hh
Sept 7, 2021 D. Sawkey (WLS-V10-07-02)
- add visualisation attributes
- fix bug preventing cladding being built
- fix counting detector hits
- add histograms
- use G4OpBoundaryProcess::invokeSD rather than ProcessHits_boundary call
in SteppingAction
- remove StringToRotation
- remove Sr90.mac; add electron.mac
May 21, 2021 D. Sawkey (WLS-V10-07-01)
- WLSMaterials: use correct material property names
examples/extended/optical/wls/README
-99
View File
@@ -1,99 +0,0 @@
=========================================================
Geant4 - an Object-Oriented Toolkit for Simulation in HEP
=========================================================
WLS
----------
This application simulates the propagation of photons inside a Wave Length
Shifting (WLS) fiber.
1- Geometry Definition
The default geometry is as follow:
- A perfect, bare, PMMA fiber: 0.5mm radius, 2m length at center(0,0,0)
of the World.
- A circular MPPC with 0.5mm radius at the +z end of the fiber
- World and coupling materials are G4_AIR
- Photons will always refracted out to coupling material before
reaching MPPC
- There are many flexible parameters that the user could specify.
They are under the /WLS directory of help.
2- Material Choices
There are several materials that the user can use for the fiber core,
world and coupling.
They are:
- Vacuum (G4_Galactic)
- Air (G4_AIR)
- PMMA, n = 1.60
- Pethylene, n = 1.49
- FPethylene, n = 1.42
- Polystyrene, n = 1.60
- Silicone, n = 1.46
3- Photon Source
This program uses the General Particle Source (G4GeneralParticleSource)
provided by GEANT4 for
generating photons. The energy of the photon must be within 2.00 eV
to 3.47 eV. For detail instruction on how to use the General Particle
Source, please visit their home page at:
http://reat.space.qinetiq.com/gps/
4- Hit
A hit is registered when the photon is absorbed on the MPPC surface.
Information stored in hit includes the local coordinate of the location
the photon is absorbed on the MPPC, the global coordinate where the
photon left the fiber and the transit time of the photon.
5- Stepping Action
The stepping action keeps track of the number of bounces a photon has
gone through. In order to prevent infinite loop and extremely skewed
rays taking up computing time, there is a limit of the number of
bounces that a photon can go through before it is artificially killed.
The default limit is 100,000. The user can set his/her own limit using
the /stepping/setBounceLimit command. A value of 0 will turn off the
limit. All photons artificially killed will have murderee flag turned
on in their UserTrackInformation.
6- Visualization
To visualize a photon's trajectory, simply use vis.mac macro in
interactive mode or in your own macro.
7- main()
- execute wls in 'batch' mode from macro files
- you can enter an optional integer seed for batch mode
% wls wls.in (optional: enter an integer seed here)
- wls in 'interactive mode' with visualization
% wls
....
Idle> /control/execute
Idle> /run/beamOn 1
....
Idle> exit
8- Macros provided
- wls.in: sets up the default geometry and provides the commands to change it.
Primary particle is an optical photon with energy 2.1 eV.
- Sr90.mac: Default geometry is used. Primary particle is a strontium ion.
- vis.mac: macro for visualization; called automatically when no macro is
given on command line.
examples/extended/optical/wls/Sr90.mac
-27
View File
@@ -1,27 +0,0 @@
/control/verbose 1
/run/verbose 1
/event/verbose 1
/tracking/verbose 0
/process/optical/verbose 1
/run/initialize
/gps/particle ion
/gps/ion 38 90 0 0
/gps/energy 0 keV
/gps/pos/type Plane
/gps/pos/shape Circle
/gps/pos/radius 0.5 mm
/gps/pos/centre 1.0 0.0 0.0 cm
/gps/pos/rot1 0 1 0
/gps/pos/rot2 0 0 1
/gps/ang/type iso
/gps/ang/mintheta 0.0 deg
/gps/ang/maxtheta 90.0 deg
/run/beamOn 10
examples/extended/optical/wls/electron.mac
+50
View File
@@ -0,0 +1,50 @@
/control/verbose 1
/run/verbose 1
/tracking/verbose 0
/event/verbose 0
/WLS/setPhotonDetGeometry Circle
/WLS/setNumOfLayers 2
/WLS/setSurfaceRoughness 0.999
/WLS/setXYRatio 0.8
/WLS/setWLSLength 1. m
/WLS/setWLSRadius 0.5 mm
/WLS/setClad1Radius 0.3 mm
/WLS/setClad2Radius 0.1 mm
#
/WLS/setPhotonDetHalfLength 0.6 mm
/WLS/setGap 0.15 mm
/WLS/setAlignment 0.1 deg
/WLS/setMirror true
/WLS/setBarLength 1.1 m
/WLS/setBarBase 9.5 mm
/WLS/setHoleRadius 0.9 mm
/WLS/setCoatingThickness 0.3 mm
/WLS/setCoatingRadius 1.775 mm
/run/initialize
/hits/verbose 2
/process/optical/verbose 1
/gps/particle e-
/gps/energy 10 MeV
/gps/pos/type Plane
/gps/pos/shape Circle
/gps/pos/radius 0.5 mm
/gps/pos/centre 0.0 0.0 0.0 cm
/gps/pos/rot1 0 1 0
/gps/pos/rot2 0 0 1
/gps/ang/type iso
/gps/ang/mintheta 0.0 deg
/gps/ang/maxtheta 90.0 deg
/run/printProgress 1
/run/beamOn 10
examples/extended/optical/wls/gui.mac
+10 -14
View File
@@ -19,21 +19,17 @@
#
# Gun menu :
/gui/addMenu gun Gun
/gui/addButton gun "50 MeV" "/gun/energy 50 MeV"
/gui/addButton gun "1 GeV" "/gun/energy 1 GeV"
/gui/addButton gun "10 GeV" "/gun/energy 10 GeV"
/gui/addButton gun "e-" "/gun/particle e-"
/gui/addButton gun "pi0" "/gun/particle pi0"
/gui/addButton gun "pi+" "/gun/particle pi+"
/gui/addButton gun "neutron" "/gun/particle neutron"
/gui/addButton gun "proton" "/gun/particle proton"
#
# Field menu :
#/gui/addMenu field Field
#/gui/addButton field "off" "/B2/det/setField 0.2 tesla"
#/gui/addButton field "0.2 tesla" "/B2/det/setField 0.2 tesla"
#/gui/addButton field "2.0 tesla" "/B2/det/setField 2.0 tesla"
/gui/addButton gun "500 keV" "/gps/energy 500 keV"
/gui/addButton gun "1 MeV" "/gps/energy 1 MeV"
/gui/addButton gun "10 MeV" "/gps/energy 10 MeV"
/gui/addButton gun "100 MeV" "/gps/energy 100 MeV"
/gui/addButton gun "e-" "/gps/particle e-"
/gui/addButton gun "pi0" "/gps/particle pi0"
/gui/addButton gun "pi+" "/gps/particle pi+"
/gui/addButton gun "neutron" "/gps/particle neutron"
/gui/addButton gun "proton" "/gps/particle proton"
#
# Viewer menu :
/gui/addMenu viewer Viewer
/gui/addButton viewer "Set style surface" "/vis/viewer/set/style surface"
examples/extended/optical/wls/include/WLSDetectorConstruction.hh
+3 -13
View File
@@ -48,6 +48,7 @@ class G4EllipticalTube;
class G4LogicalVolume;
class G4Material;
class G4Tubs;
class G4VisAttributes;
class G4VPhysicalVolume;
class WLSDetectorConstruction : public G4VUserDetectorConstruction
@@ -112,20 +113,11 @@ class WLSDetectorConstruction : public G4VUserDetectorConstruction
G4double GetCoatingThickness();
G4double GetCoatingRadius();
// StringToRotationMatrix() converts a string "X90,Y45" into a
// G4RotationMatrix.
// This is an active rotation, in that the object is first rotated
// around the parent's X axis by 90 degrees, then the object is
// further rotated around the parent's Y axis by 45 degrees.
// The return value points to a G4RotationMatrix on the heap, so
// it is persistent. Angles are in degrees, can have decimals,
// and can be negative. Axes are X, Y, Z.
static G4RotationMatrix StringToRotationMatrix(G4String rotation);
G4Material* FindMaterial(G4String);
private:
std::vector<G4VisAttributes*> fVisAttributes;
WLSMaterials* fMaterials;
G4LogicalVolume* fLogicHole;
@@ -191,8 +183,6 @@ class WLSDetectorConstruction : public G4VUserDetectorConstruction
G4double fCoatingThickness;
G4double fCoatingRadius;
void ConstructFiber();
void UpdateGeometryParameters();
WLSDetectorMessenger* fDetectorMessenger;
examples/extended/optical/wls/include/WLSEventAction.hh
-2
View File
@@ -60,7 +60,6 @@ class WLSEventAction : public G4UserEventAction
void AddClad1Bounce() { fClad1Bounce += 1; };
void AddClad2Bounce() { fClad2Bounce += 1; };
void AddReflected() { fReflected += 1; };
void AddDetected() { fDetected += 1; };
void AddEscaped() { fEscaped += 1; };
void AddMirror() { fMirror += 1; };
@@ -80,7 +79,6 @@ class WLSEventAction : public G4UserEventAction
G4int fClad1Bounce;
G4int fClad2Bounce;
G4int fReflected;
G4int fDetected;
G4int fEscaped;
G4int fMirror;
};
examples/extended/optical/wls/include/WLSPhotonDetHit.hh
+8 -1
View File
@@ -45,7 +45,7 @@ class WLSPhotonDetHit : public G4VHit
{
public:
WLSPhotonDetHit();
WLSPhotonDetHit(G4ThreeVector pExit, G4ThreeVector pArrive, G4double pTime);
WLSPhotonDetHit(G4ThreeVector pExit, G4ThreeVector pArrive, G4double pTime, G4double pEnergy);
~WLSPhotonDetHit();
WLSPhotonDetHit(const WLSPhotonDetHit& right);
@@ -65,6 +65,11 @@ class WLSPhotonDetHit : public G4VHit
inline void SetArrivalTime(G4double t) { fArrivalTime = t; }
inline G4double GetArrivalTime() { return fArrivalTime; }
inline void SetEnergy(G4double en) { fEnergy = en; }
inline G4double GetEnergy() { return fEnergy; }
void Print();
private:
// the arrival time of the photon
G4double fArrivalTime;
@@ -72,6 +77,8 @@ class WLSPhotonDetHit : public G4VHit
G4ThreeVector fPosArrive;
// where the photon exited the fiber (world's coordinate)
G4ThreeVector fPosExit;
// energy of photon
G4double fEnergy;
};
//--------------------------------------------------
examples/extended/optical/wls/include/WLSPhotonDetSD.hh
+2 -2
View File
@@ -50,8 +50,8 @@ class WLSPhotonDetSD : public G4VSensitiveDetector
void Initialize(G4HCofThisEvent*) override;
G4bool ProcessHits(G4Step*, G4TouchableHistory*) override;
// A version of processHits, not called automatically by sensitive detector
G4bool ProcessHits_boundary(const G4Step*, G4TouchableHistory*);
void EndOfEvent(G4HCofThisEvent*) override;
private:
WLSPhotonDetHitsCollection* fPhotonDetHitCollection;
examples/extended/optical/wls/include/WLSRun.hh
-8
View File
@@ -96,12 +96,6 @@ class WLSRun : public G4Run
fReflected += nd;
fReflected2 += nd * nd;
};
void AddDetected(G4int n)
{
G4double nd(n);
fDetected += nd;
fDetected2 += nd * nd;
};
void AddEscaped(G4int n)
{
G4double nd(n);
@@ -143,8 +137,6 @@ class WLSRun : public G4Run
G4double fClad2Bounce2;
G4double fReflected;
G4double fReflected2;
G4double fDetected;
G4double fDetected2;
G4double fEscaped;
G4double fEscaped2;
G4double fMirror;
examples/extended/optical/wls/src/WLSDetectorConstruction.cc
+152 -115
View File
@@ -57,10 +57,14 @@
#include "G4Tubs.hh"
#include "G4UserLimits.hh"
#include "G4VisAttributes.hh"
#include "G4Colour.hh"
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
WLSDetectorConstruction::WLSDetectorConstruction()
: fMaterials(nullptr)
: fVisAttributes()
, fMaterials(nullptr)
, fLogicHole(nullptr)
, fLogicWorld(nullptr)
, fPhysiWorld(nullptr)
@@ -113,6 +117,10 @@ WLSDetectorConstruction::~WLSDetectorConstruction()
delete fDetectorMessenger;
if(fMaterials)
delete fMaterials;
for (auto visAttributes: fVisAttributes)
{
delete visAttributes;
}
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
@@ -139,6 +147,11 @@ G4VPhysicalVolume* WLSDetectorConstruction::Construct()
G4VPhysicalVolume* WLSDetectorConstruction::ConstructDetector()
{
auto air = FindMaterial("G4_AIR");
//G4cout << "\nMaterial Properties Table for G4_AIR:" << G4endl;
//air->GetMaterialPropertiesTable()->DumpTable();
//--------------------------------------------------
// World
//--------------------------------------------------
@@ -147,7 +160,7 @@ G4VPhysicalVolume* WLSDetectorConstruction::ConstructDetector()
new G4Box("World", fWorldSizeX, fWorldSizeY, fWorldSizeZ);
fLogicWorld =
new G4LogicalVolume(solidWorld, FindMaterial("G4_AIR"), "World");
new G4LogicalVolume(solidWorld, air, "World");
fPhysiWorld =
new G4PVPlacement(0, G4ThreeVector(), fLogicWorld, "World", 0, false, 0);
@@ -156,11 +169,13 @@ G4VPhysicalVolume* WLSDetectorConstruction::ConstructDetector()
// Extrusion
//--------------------------------------------------
auto coating = FindMaterial("Coating");
G4VSolid* solidExtrusion = new G4Box("Extrusion", GetBarBase() / 2.,
GetBarBase() / 2., GetBarLength() / 2.);
G4LogicalVolume* logicExtrusion =
new G4LogicalVolume(solidExtrusion, FindMaterial("Coating"), "Extrusion");
new G4LogicalVolume(solidExtrusion, coating, "Extrusion");
G4OpticalSurface* TiO2Surface = new G4OpticalSurface(
"TiO2Surface", glisur, ground, dielectric_metal, fExtrusionPolish);
@@ -188,6 +203,10 @@ G4VPhysicalVolume* WLSDetectorConstruction::ConstructDetector()
// Scintillator
//--------------------------------------------------
auto polystyrene = FindMaterial("Polystyrene");
//G4cout << "\nMaterial Properties Table for Polystyrene:" << G4endl;
//polystyrene->GetMaterialPropertiesTable()->DumpTable();
G4VSolid* solidScintillator =
new G4Box("Scintillator",
GetBarBase() / 2. - GetCoatingThickness() - GetCoatingRadius(),
@@ -195,11 +214,13 @@ G4VPhysicalVolume* WLSDetectorConstruction::ConstructDetector()
GetBarLength() / 2.);
G4LogicalVolume* logicScintillator = new G4LogicalVolume(
solidScintillator, FindMaterial("Polystyrene"), "Scintillator");
solidScintillator, polystyrene, "Scintillator");
new G4PVPlacement(0, G4ThreeVector(), logicScintillator, "Scintillator",
logicExtrusion, false, 0);
G4LogicalVolume* logicScintSide = nullptr;
G4LogicalVolume* logicScintCrnr = nullptr;
if(GetCoatingRadius() > 0.)
{
G4VSolid* solidScintside =
@@ -211,11 +232,11 @@ G4VPhysicalVolume* WLSDetectorConstruction::ConstructDetector()
new G4Tubs("CrnrOfBar", 0.0 * cm, GetCoatingRadius(), GetBarLength() / 2.,
0. * deg, 90. * deg);
G4LogicalVolume* logicScintSide = new G4LogicalVolume(
solidScintside, FindMaterial("Polystyrene"), "SideOfBar");
logicScintSide = new G4LogicalVolume(
solidScintside, polystyrene, "SideOfBar");
G4LogicalVolume* logicScintCrnr = new G4LogicalVolume(
solidScintcrnr, FindMaterial("Polystyrene"), "CrnrOfBar");
logicScintCrnr = new G4LogicalVolume(
solidScintcrnr, polystyrene, "CrnrOfBar");
G4double pos =
GetBarBase() / 2. - GetCoatingThickness() - GetCoatingRadius() / 2.;
@@ -227,12 +248,7 @@ G4VPhysicalVolume* WLSDetectorConstruction::ConstructDetector()
"SideOfBar", logicExtrusion, false, 1);
G4RotationMatrix* rot1 = new G4RotationMatrix();
*rot1 = StringToRotationMatrix("Z90");
*rot1 = rot1->inverse();
if(*rot1 == G4RotationMatrix())
{
rot1 = nullptr;
}
rot1->rotateZ(-90.*deg);
new G4PVPlacement(rot1, G4ThreeVector(pos, 0., 0.), logicScintSide,
"SideOfBar", logicExtrusion, false, 2);
@@ -249,23 +265,13 @@ G4VPhysicalVolume* WLSDetectorConstruction::ConstructDetector()
"CrnrOfBar", logicExtrusion, false, 1);
G4RotationMatrix* rot2 = new G4RotationMatrix();
*rot2 = StringToRotationMatrix("Z180");
*rot2 = rot2->inverse();
if(*rot2 == G4RotationMatrix())
{
rot2 = nullptr;
}
rot2->rotateZ(-180.*deg);
new G4PVPlacement(rot2, G4ThreeVector(-pos, -pos, 0.), logicScintCrnr,
"CrnrOfBar", logicExtrusion, false, 2);
G4RotationMatrix* rot3 = new G4RotationMatrix();
*rot3 = StringToRotationMatrix("Z270");
*rot3 = rot3->inverse();
if(*rot3 == G4RotationMatrix())
{
rot3 = nullptr;
}
rot3->rotateZ(-270.*deg);
new G4PVPlacement(rot3, G4ThreeVector(pos, -pos, 0.), logicScintCrnr,
"CrnrOfBar", logicExtrusion, false, 3);
@@ -276,7 +282,7 @@ G4VPhysicalVolume* WLSDetectorConstruction::ConstructDetector()
G4VSolid* solidHole = new G4Tubs(
"Hole", 0., GetHoleRadius(), GetHoleLength() / 2., 0. * deg, 360. * deg);
fLogicHole = new G4LogicalVolume(solidHole, FindMaterial("G4_AIR"), "Hole");
fLogicHole = new G4LogicalVolume(solidHole, air, "Hole");
fPhysiHole = new G4PVPlacement(0, G4ThreeVector(), fLogicHole, "Hole",
logicScintillator, false, 0);
@@ -286,21 +292,11 @@ G4VPhysicalVolume* WLSDetectorConstruction::ConstructDetector()
// Fiber
//--------------------------------------------------
ConstructFiber();
return fPhysiWorld;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void WLSDetectorConstruction::ConstructFiber()
{
if(!(fLogicHole) || !(fPhysiHole))
{
G4ExceptionDescription ed;
ed << "The Fiber Hole has not been constructed";
G4Exception("WLSDetectorConstruction::ConstructFiber", "", FatalException,
ed);
G4Exception("WLSDetectorConstruction", "wls001", FatalException, ed);
}
// Pointers to the most recently constructed volume
@@ -317,11 +313,16 @@ void WLSDetectorConstruction::ConstructFiber()
if(fSurfaceRoughness < 1.)
opSurface = new G4OpticalSurface("RoughSurface", glisur, ground,
dielectric_dielectric, fSurfaceRoughness);
G4LogicalVolume* logicWLSfiber = nullptr;
G4LogicalVolume* logicClad1 = nullptr;
G4LogicalVolume* logicClad2 = nullptr;
G4VPhysicalVolume* physiClad1 = nullptr;
G4VPhysicalVolume* physiClad2 = nullptr;
G4LogicalVolume* logicClad1 = nullptr;
G4LogicalVolume* logicClad2 = nullptr;
G4VPhysicalVolume* physiClad1 = nullptr;
G4VPhysicalVolume* physiClad2 = nullptr;
auto fpethylene = FindMaterial("FPethylene");
auto pethylene = FindMaterial("Pethylene");
auto pmma = FindMaterial("PMMA");
// Determine the number of cladding layers to be built
switch(fNumOfCladLayers)
@@ -332,6 +333,9 @@ void WLSDetectorConstruction::ConstructFiber()
// Cladding 2
//--------------------------------------------------
//G4cout << "\nMaterial Properties Table for fPethylene:" << G4endl;
//fpethylene->GetMaterialPropertiesTable()->DumpTable();
G4VSolid* solidClad2;
if(fXYRatio == 1.)
@@ -340,7 +344,7 @@ void WLSDetectorConstruction::ConstructFiber()
solidClad2 = new G4EllipticalTube("Clad2", fClad2RX, fClad2RY, fClad2Z);
logicClad2 =
new G4LogicalVolume(solidClad2, FindMaterial("FPethylene"), "Clad2");
new G4LogicalVolume(solidClad2, fpethylene, "Clad2");
physiClad2 =
new G4PVPlacement(0, G4ThreeVector(0.0, 0.0, fWLSfiberOrigin),
@@ -357,7 +361,7 @@ void WLSDetectorConstruction::ConstructFiber()
logicPlacement = logicClad2;
physiPlacement = physiClad2;
break;
[[fallthrough]];
case 1:
@@ -365,6 +369,9 @@ void WLSDetectorConstruction::ConstructFiber()
// Cladding 1
//--------------------------------------------------
//G4cout << "\nMaterial Properties Table for Pethylene:" << G4endl;
//pethylene->GetMaterialPropertiesTable()->DumpTable();
G4VSolid* solidClad1;
if(fXYRatio == 1.)
@@ -373,7 +380,7 @@ void WLSDetectorConstruction::ConstructFiber()
solidClad1 = new G4EllipticalTube("Clad1", fClad1RX, fClad1RY, fClad1Z);
logicClad1 =
new G4LogicalVolume(solidClad1, FindMaterial("Pethylene"), "Clad1");
new G4LogicalVolume(solidClad1, pethylene, "Clad1");
physiClad1 =
new G4PVPlacement(0, G4ThreeVector(0., 0., fWLSfiberOrigin), logicClad1,
@@ -391,7 +398,7 @@ void WLSDetectorConstruction::ConstructFiber()
logicPlacement = logicClad1;
physiPlacement = physiClad1;
break;
[[fallthrough]];
default:
@@ -399,6 +406,9 @@ void WLSDetectorConstruction::ConstructFiber()
// WLS Fiber
//--------------------------------------------------
//G4cout << "\nMaterial Properties Table for PMMA:" << G4endl;
//pmma->GetMaterialPropertiesTable()->DumpTable();
G4VSolid* solidWLSfiber;
if(fXYRatio == 1.)
@@ -412,8 +422,8 @@ void WLSDetectorConstruction::ConstructFiber()
fWLSfiberRY, fWLSfiberZ);
}
G4LogicalVolume* logicWLSfiber =
new G4LogicalVolume(solidWLSfiber, FindMaterial("PMMA"), "WLSFiber");
logicWLSfiber =
new G4LogicalVolume(solidWLSfiber, pmma, "WLSFiber");
logicWLSfiber->SetUserLimits(
new G4UserLimits(DBL_MAX, DBL_MAX, 10. * ms));
@@ -438,13 +448,17 @@ void WLSDetectorConstruction::ConstructFiber()
//--------------------------------------------------
// Place the mirror only if the user wants the mirror
G4LogicalVolume* logicMirror = nullptr;
auto aluminum = FindMaterial("G4_Al");
if(fMirrorToggle)
{
G4VSolid* solidMirror =
new G4Box("Mirror", fMirrorRmax, fMirrorRmax, fMirrorZ);
G4LogicalVolume* logicMirror =
new G4LogicalVolume(solidMirror, FindMaterial("G4_Al"), "Mirror");
logicMirror =
new G4LogicalVolume(solidMirror, aluminum, "Mirror");
G4OpticalSurface* mirrorSurface = new G4OpticalSurface(
"MirrorSurface", glisur, ground, dielectric_metal, fMirrorPolish);
@@ -476,7 +490,7 @@ void WLSDetectorConstruction::ConstructFiber()
G4VSolid* solidCouple = new G4Box("Couple", fCoupleRX, fCoupleRY, fCoupleZ);
G4LogicalVolume* logicCouple =
new G4LogicalVolume(solidCouple, FindMaterial("G4_AIR"), "Couple");
new G4LogicalVolume(solidCouple, air, "Couple");
new G4PVPlacement(0, G4ThreeVector(0., 0., fCoupleOrigin), logicCouple,
"Couple", fLogicWorld, false, 0);
@@ -493,7 +507,9 @@ void WLSDetectorConstruction::ConstructFiber()
fMPPCTheta = 0.;
fMPPCOriginX = std::sin(fMPPCTheta) * (fMPPCDist + fClrfiberZ);
fMPPCOriginZ = -fCoupleZ + std::cos(fMPPCTheta) * (fMPPCDist + fClrfiberZ);
G4cerr << "Invalid alignment. Alignment Reset to 0" << G4endl;
G4ExceptionDescription ed;
ed << "Invalid alignment. Alignment reset to 0.";
G4Exception("WLSDetectorConstruction", "wls002", JustWarning, ed);
}
// Clear Fiber (Coupling Layer)
@@ -511,7 +527,7 @@ void WLSDetectorConstruction::ConstructFiber()
}
G4LogicalVolume* logicClrfiber =
new G4LogicalVolume(solidClrfiber, FindMaterial("G4_AIR"), "ClearFiber");
new G4LogicalVolume(solidClrfiber, air, "ClearFiber");
new G4PVPlacement(new G4RotationMatrix(CLHEP::HepRotationY(-fMPPCTheta)),
G4ThreeVector(fMPPCOriginX, 0.0, fMPPCOriginZ),
@@ -530,7 +546,7 @@ void WLSDetectorConstruction::ConstructFiber()
solidPhotonDet = new G4Tubs("PhotonDet", 0., fMPPCHalfL, fMPPCZ, 0., twopi);
G4LogicalVolume* logicPhotonDet =
new G4LogicalVolume(solidPhotonDet, FindMaterial("G4_Al"), "PhotonDet_LV");
new G4LogicalVolume(solidPhotonDet, aluminum, "PhotonDet_LV");
new G4PVPlacement(0, G4ThreeVector(0., 0., 0.), logicPhotonDet, "PhotonDet",
logicClrfiber, false, 0);
@@ -553,8 +569,88 @@ void WLSDetectorConstruction::ConstructFiber()
new G4LogicalSkinSurface("PhotonDetSurface", logicPhotonDet,
photonDetSurface);
// visualization attributes -------------------------------------------------
auto visAttributes = new G4VisAttributes(G4Colour(1.0,1.0,1.0));
visAttributes->SetVisibility(false);
fLogicWorld->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
visAttributes = new G4VisAttributes(G4Colour(0.2,0.2,0.2,0.5));
visAttributes->SetVisibility(true);
logicExtrusion->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
visAttributes = new G4VisAttributes(G4Colour(0.0,0.0,1.0,0.9));
visAttributes->SetVisibility(true);
logicScintillator->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
visAttributes = new G4VisAttributes(G4Colour(0.0,0.8,0.2,0.2));
visAttributes->SetVisibility(true);
logicScintSide->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
visAttributes = new G4VisAttributes(G4Colour(0.0,0.8,0.2,0.2));
visAttributes->SetVisibility(true);
logicScintCrnr->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
visAttributes = new G4VisAttributes(G4Colour(0.4,0.0,0.0,0.5));
visAttributes->SetVisibility(true);
fLogicHole->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
if(logicClad1 != nullptr)
{
visAttributes = new G4VisAttributes(G4Colour(0.0,0.8,0.5,0.5));
visAttributes->SetVisibility(true);
logicClad1->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
}
if(logicClad2 != nullptr)
{
visAttributes = new G4VisAttributes(G4Colour(0.0,0.5,0.8,0.5));
visAttributes->SetVisibility(true);
logicClad2->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
}
visAttributes = new G4VisAttributes(G4Colour(0.8,0.8,1.0));
visAttributes->SetVisibility(true);
logicWLSfiber->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
if(fMirrorToggle == true)
{
visAttributes = new G4VisAttributes(G4Colour(0.3,0.3,1.0,0.3));
visAttributes->SetVisibility(true);
logicMirror->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
}
visAttributes = new G4VisAttributes(G4Colour(0.0,0.0,0.5,0.5));
visAttributes->SetVisibility(true);
logicCouple->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
visAttributes = new G4VisAttributes(G4Colour(0.3,0.3,0.3,0.5));
visAttributes->SetVisibility(true);
logicClrfiber->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
visAttributes = new G4VisAttributes(G4Colour(1.0,1.0,1.0,0.8));
visAttributes->SetVisibility(true);
logicPhotonDet->SetVisAttributes(visAttributes);
fVisAttributes.push_back(visAttributes);
return fPhysiWorld;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void WLSDetectorConstruction::ConstructSDandField()
@@ -603,72 +699,13 @@ void WLSDetectorConstruction::UpdateGeometryParameters()
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4RotationMatrix WLSDetectorConstruction::StringToRotationMatrix(
G4String rotation)
{
// We apply successive rotations OF THE OBJECT around the FIXED
// axes of the parent's local coordinates; rotations are applied
// left-to-right (rotation="r1,r2,r3" => r1 then r2 then r3).
G4RotationMatrix rot;
unsigned int place = 0;
while(place < rotation.size())
{
G4double angle;
char* p;
const G4String tmpstring = rotation.substr(place + 1);
angle = strtod(tmpstring.c_str(), &p) * deg;
if(!p || (*p != (char) ',' && *p != (char) '\0'))
{
G4cerr << "Invalid rotation specification: " << rotation.c_str()
<< G4endl;
return rot;
}
G4RotationMatrix thisRotation;
switch(rotation.substr(place, 1).c_str()[0])
{
case 'X':
case 'x':
thisRotation = G4RotationMatrix(CLHEP::HepRotationX(angle));
break;
case 'Y':
case 'y':
thisRotation = G4RotationMatrix(CLHEP::HepRotationY(angle));
break;
case 'Z':
case 'z':
thisRotation = G4RotationMatrix(CLHEP::HepRotationZ(angle));
break;
default:
G4cerr << " Invalid rotation specification: " << rotation << G4endl;
return rot;
}
rot = thisRotation * rot;
place = rotation.find(',', place);
if(place > rotation.size())
break;
++place;
}
return rot;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void WLSDetectorConstruction::SetPhotonDetGeometry(G4String shape)
// Set the Geometry of the PhotonDet detector
// Pre: shape must be either "Circle" and "Square"
{
if(shape == "Circle" || shape == "Square")
fMPPCShape = shape;
G4RunManager::GetRunManager()->ReinitializeGeometry();
G4RunManager::GetRunManager()->GeometryHasBeenModified();
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
examples/extended/optical/wls/src/WLSEventAction.cc
+9 -3
View File
@@ -35,8 +35,8 @@
#include "WLSPhotonDetHit.hh"
#include "WLSRun.hh"
#include "WLSRunAction.hh"
#include "WLSTrajectory.hh"
#include "G4AnalysisManager.hh"
#include "G4Event.hh"
#include "G4EventManager.hh"
#include "G4RunManager.hh"
@@ -75,7 +75,6 @@ void WLSEventAction::BeginOfEventAction(const G4Event*)
fClad1Bounce = 0;
fClad2Bounce = 0;
fReflected = 0;
fDetected = 0;
fEscaped = 0;
fMirror = 0;
}
@@ -108,6 +107,14 @@ void WLSEventAction::EndOfEventAction(const G4Event* evt)
n_hit = mppcHC->entries();
}
auto analysisManager = G4AnalysisManager::Instance();
analysisManager->FillH1(2, mppcHC->entries());
for (size_t i = 0; i < mppcHC->entries(); ++i) {
auto pdHit = (*mppcHC)[i];
analysisManager->FillH1(0, pdHit->GetEnergy());
analysisManager->FillH1(1, pdHit->GetArrivalTime());
}
if(fVerboseLevel > 1)
{
G4cout << "-------------------------------------" << G4endl
@@ -121,7 +128,6 @@ void WLSEventAction::EndOfEventAction(const G4Event* evt)
<< " Clad1 Bounce: " << fClad1Bounce << G4endl
<< " Clad2 Bounce: " << fClad2Bounce << G4endl
<< " Reflected: " << fReflected << G4endl
<< " Detected: " << fDetected << G4endl
<< " Escaped: " << fEscaped << G4endl
<< " Mirror: " << fMirror << G4endl
<< " Detector hit: " << n_hit << G4endl;
examples/extended/optical/wls/src/WLSPhotonDetHit.cc
+23 -2
View File
@@ -30,6 +30,8 @@
//
#include "WLSPhotonDetHit.hh"
#include "G4UnitsTable.hh"
G4ThreadLocal G4Allocator<WLSPhotonDetHit>* WLSPhotonDetHitAllocator = nullptr;
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
@@ -37,6 +39,7 @@ G4ThreadLocal G4Allocator<WLSPhotonDetHit>* WLSPhotonDetHitAllocator = nullptr;
WLSPhotonDetHit::WLSPhotonDetHit()
{
fArrivalTime = 0.;
fEnergy = 0.;
fPosArrive = G4ThreeVector(0., 0., 0.);
fPosExit = G4ThreeVector(0., 0., 0.);
}
@@ -44,11 +47,12 @@ WLSPhotonDetHit::WLSPhotonDetHit()
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
WLSPhotonDetHit::WLSPhotonDetHit(G4ThreeVector pExit, G4ThreeVector pArrive,
G4double pTime)
G4double pTime, G4double pEnergy)
{
fPosExit = pExit;
fPosArrive = pArrive;
fArrivalTime = pTime;
fEnergy = pEnergy;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
@@ -70,6 +74,7 @@ const WLSPhotonDetHit& WLSPhotonDetHit::operator=(const WLSPhotonDetHit& right)
fPosExit = right.fPosExit;
fPosArrive = right.fPosArrive;
fArrivalTime = right.fArrivalTime;
fEnergy = right.fEnergy;
return *this;
}
@@ -79,5 +84,21 @@ const WLSPhotonDetHit& WLSPhotonDetHit::operator=(const WLSPhotonDetHit& right)
G4bool WLSPhotonDetHit::operator==(const WLSPhotonDetHit& right) const
{
return fPosExit == right.fPosExit && fPosArrive == right.fPosArrive &&
fArrivalTime == right.fArrivalTime;
fArrivalTime == right.fArrivalTime && fEnergy == right.fEnergy;
}
void WLSPhotonDetHit::Print()
{
G4cout
<< "Arrival time: "
<< std::setw(7) << G4BestUnit(fArrivalTime, "Time")
<< "Arrival position: ("
<< std::setw(7) << G4BestUnit(fPosArrive.x(), "Length") << ", "
<< std::setw(7) << G4BestUnit(fPosArrive.y(), "Length") << "); "
<< "Exit position: ("
<< std::setw(7) << G4BestUnit(fPosExit.x(), "Length") << ", "
<< std::setw(7) << G4BestUnit(fPosExit.y(), "Length") << "); "
<< "Energy: "
<< std::setw(7) << G4BestUnit(fEnergy, "Energy")
<< G4endl;
}
examples/extended/optical/wls/src/WLSPhotonDetSD.cc
+15 -12
View File
@@ -72,17 +72,7 @@ void WLSPhotonDetSD::Initialize(G4HCofThisEvent* HCE)
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4bool WLSPhotonDetSD::ProcessHits(G4Step*, G4TouchableHistory*)
{
return false;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4bool WLSPhotonDetSD::ProcessHits_boundary(const G4Step* aStep,
G4TouchableHistory*)
// Generates a hit and uses the postStepPoint; PostStepPoint because the hit
// is generated manually when the photon hits the detector
G4bool WLSPhotonDetSD::ProcessHits(G4Step* aStep, G4TouchableHistory*)
{
if(!aStep)
return false;
@@ -106,6 +96,7 @@ G4bool WLSPhotonDetSD::ProcessHits_boundary(const G4Step* aStep,
G4ThreeVector photonExit = trackInformation->GetExitPosition();
G4ThreeVector photonArrive = thePostPoint->GetPosition();
G4double arrivalTime = theTrack->GetGlobalTime();
G4double energy = theTrack->GetTotalEnergy();
// Convert the global coordinate for arriving photons into
// the local coordinate of the detector
@@ -114,7 +105,19 @@ G4bool WLSPhotonDetSD::ProcessHits_boundary(const G4Step* aStep,
// Creating the hit and add it to the collection
fPhotonDetHitCollection->insert(
new WLSPhotonDetHit(photonExit, photonArrive, arrivalTime));
new WLSPhotonDetHit(photonExit, photonArrive, arrivalTime, energy));
return true;
}
void WLSPhotonDetSD::EndOfEvent(G4HCofThisEvent*)
{
if ( verboseLevel>1 ) {
G4int nofHits = fPhotonDetHitCollection->entries();
G4cout << G4endl
<< "-------->Hits Collection: in this event there are " << nofHits
<< " hits in the photon detector: " << G4endl;
for ( G4int i=0; i<nofHits; i++ ) (*fPhotonDetHitCollection)[i]->Print();
}
}
examples/extended/optical/wls/src/WLSPrimaryGeneratorAction.cc
+1 -1
View File
@@ -181,7 +181,7 @@ void WLSPrimaryGeneratorAction::GeneratePrimaries(G4Event* anEvent)
}
// this does not work.
G4String cmd = "/gun/energy " + G4String(sampledEnergy / eV) + " eV";
G4String cmd = "/gun/energy " + G4UIcommand::ConvertToString(sampledEnergy / eV) + " eV";
G4UImanager::GetUIpointer()->ApplyCommand(cmd);
}
examples/extended/optical/wls/src/WLSRun.cc
-13
View File
@@ -54,8 +54,6 @@ WLSRun::WLSRun()
fClad2Bounce2 = 0.;
fReflected = 0.;
fReflected2 = 0.;
fDetected = 0.;
fDetected2 = 0.;
fEscaped = 0.;
fEscaped2 = 0.;
fMirror = 0.;
@@ -92,8 +90,6 @@ void WLSRun::Merge(const G4Run* run)
fClad2Bounce2 += localRun->fClad2Bounce2;
fReflected += localRun->fReflected;
fReflected2 += localRun->fReflected2;
fDetected += localRun->fDetected;
fDetected2 += localRun->fDetected2;
fEscaped += localRun->fEscaped;
fEscaped2 += localRun->fEscaped2;
fMirror += localRun->fMirror;
@@ -184,14 +180,6 @@ void WLSRun::EndOfRun()
else
rmsReflected = 0.;
fDetected = fDetected / TotNbofEvents;
fDetected2 = fDetected2 / TotNbofEvents;
G4double rmsDetected = fDetected2 - fDetected * fDetected;
if(rmsDetected > 0.)
rmsDetected = std::sqrt(rmsDetected);
else
rmsDetected = 0.;
fEscaped = fEscaped / TotNbofEvents;
fEscaped2 = fEscaped2 / TotNbofEvents;
G4double rmsEscaped = fEscaped2 - fEscaped * fEscaped;
@@ -229,7 +217,6 @@ void WLSRun::EndOfRun()
<< " +- " << rmsClad1Bounce << G4endl
<< " Clad2 Bounce: " << fClad2Bounce << " +- " << rmsClad2Bounce
<< G4endl << " Reflected: " << fReflected << " +- " << rmsReflected
<< G4endl << " Detected: " << fDetected << " +- " << rmsDetected
<< G4endl << " Escaped: " << fEscaped << " +- " << rmsEscaped
<< G4endl << " Mirror: " << fMirror << " +- " << rmsMirror
<< G4endl << " Detector hit: " << fDetectorHits << " +- "
examples/extended/optical/wls/src/WLSRunAction.cc
+41 -2
View File
@@ -35,6 +35,7 @@
#include "WLSRun.hh"
#include "WLSSteppingAction.hh"
#include "G4AnalysisManager.hh"
#include "G4Run.hh"
#include "G4RunManager.hh"
#include "Randomize.hh"
@@ -43,7 +44,20 @@
WLSRunAction::WLSRunAction()
: fRun(nullptr)
{}
{
auto analysisManager = G4AnalysisManager::Instance();
analysisManager->SetDefaultFileType("root");
analysisManager->SetVerboseLevel(1);
G4cout << "Using " << analysisManager->GetType() << G4endl;
analysisManager->CreateH1("Energy", "Energy of optical photon", 100,
2.*CLHEP::eV, 3.2*CLHEP::eV);
analysisManager->CreateH1("Time", "Arrival time", 100, 0., 100.*CLHEP::ns);
analysisManager->CreateH1("Number of photons", "Number of photons", 100, 0., 100.);
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
@@ -57,12 +71,37 @@ G4Run* WLSRunAction::GenerateRun()
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void WLSRunAction::BeginOfRunAction(const G4Run*) {}
void WLSRunAction::BeginOfRunAction(const G4Run*)
{
G4AnalysisManager::Instance()->OpenFile("wls");
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
void WLSRunAction::EndOfRunAction(const G4Run*)
{
auto analysisManager = G4AnalysisManager::Instance();
if (analysisManager->GetH1(0)) {
G4cout << G4endl << " ----> print histograms statistics ";
if(isMaster)
{
G4cout << "for the entire run " << G4endl << G4endl;
}
else {
G4cout << "for the local thread " << G4endl << G4endl;
}
G4cout << " Mean number of photons detected/event: "
<< analysisManager->GetH1(2)->mean()
<< " rms = "
<< analysisManager->GetH1(2)->rms() << G4endl;
}
analysisManager->Write();
analysisManager->CloseFile();
if(isMaster)
fRun->EndOfRun();
}
examples/extended/optical/wls/src/WLSSteppingAction.cc
+7 -25
View File
@@ -199,7 +199,7 @@ void WLSSteppingAction::UserSteppingAction(const G4Step* theStep)
// Record Photons that missed the photon detector but escaped from readout
if(!thePostPV && trackInformation->IsStatus(EscapedFromReadOut))
{
G4cout << "SteppingAction: status = EscapedFromReadOut" << G4endl;
//G4cout << "SteppingAction: status = EscapedFromReadOut" << G4endl;
fEventAction->AddEscaped();
// UpdateHistogramSuccess(thePostPoint,theTrack);
ResetCounters();
@@ -308,7 +308,7 @@ void WLSSteppingAction::UserSteppingAction(const G4Step* theStep)
}
return;
// Reflection of the mirror
// Reflection off the mirror
case LambertianReflection:
case LobeReflection:
case SpikeReflection:
@@ -324,30 +324,12 @@ void WLSSteppingAction::UserSteppingAction(const G4Step* theStep)
// Detected by a detector
case Detection:
// Detected automatically with G4OpBoundaryProcess->InvokeSD set true
// Check if the photon hits the detector and process the hit if it does
if(thePostPVname == "PhotonDet")
{
// G4cout << "Detection" << G4endl;
fEventAction->AddDetected();
G4SDManager* SDman = G4SDManager::GetSDMpointer();
G4String SDname = "WLS/PhotonDet";
WLSPhotonDetSD* mppcSD =
(WLSPhotonDetSD*) SDman->FindSensitiveDetector(SDname);
if(mppcSD)
mppcSD->ProcessHits_boundary(theStep, nullptr);
// Record Photons that escaped at the end
// if (trackInformation->IsStatus(EscapedFromReadOut))
// UpdateHistogramSuccess(thePostPoint,theTrack);
// Stop Tracking when it hits the detector's surface
ResetCounters();
theTrack->SetTrackStatus(fStopAndKill);
return;
}
break;
// Stop Tracking when it hits the detector's surface
ResetCounters();
theTrack->SetTrackStatus(fStopAndKill);
return;
default:
break;
examples/extended/optical/wls/src/WLSTrajectoryPoint.cc
+2 -1
View File
@@ -36,6 +36,7 @@
#include "G4Step.hh"
#include "G4StepStatus.hh"
#include "G4Track.hh"
#include "G4UIcommand.hh"
#include "G4UnitsTable.hh"
#include "G4VProcess.hh"
@@ -136,7 +137,7 @@ std::vector<G4AttValue>* WLSTrajectoryPoint::CreateAttValues() const
values->push_back(G4AttValue("Time", G4BestUnit(fTime, "Time"), ""));
values->push_back(
G4AttValue("Momentum", G4BestUnit(fMomentum, "Momentum"), ""));
values->push_back(G4AttValue("StepStatus", fStepStatus, ""));
values->push_back(G4AttValue("StepStatus", G4UIcommand::ConvertToString(fStepStatus), ""));
values->push_back(G4AttValue("VolumeName", fVolumeName, ""));
return values;
examples/extended/optical/wls/vis.mac
+40 -2
View File
@@ -5,6 +5,28 @@
#
/control/verbose 2
/run/verbose 2
/WLS/setPhotonDetGeometry Circle
/WLS/setNumOfLayers 2
/WLS/setSurfaceRoughness 0.999
/WLS/setXYRatio 0.8
/WLS/setWLSLength 1. m
/WLS/setWLSRadius 0.5 mm
/WLS/setClad1Radius 0.3 mm
/WLS/setClad2Radius 0.1 mm
#
/WLS/setPhotonDetHalfLength 0.6 mm
/WLS/setGap 0.15 mm
/WLS/setAlignment 0.1 deg
/WLS/setMirror true
/WLS/setBarLength 1.1 m
/WLS/setBarBase 9.5 mm
/WLS/setHoleRadius 0.9 mm
/WLS/setCoatingThickness 0.3 mm
/WLS/setCoatingRadius 1.775 mm
/run/initialize
#
# Use this open statement to create an OpenGL view:
@@ -34,10 +56,10 @@
#/vis/viewer/set/viewpointThetaPhi 90. 0.
#
# Specify zoom value:
/vis/viewer/zoom 1.4
/vis/viewer/zoom 20
#
# Specify style (surface or wireframe):
#/vis/viewer/set/style wireframe
/vis/viewer/set/style surface
#
# Draw coordinate axes:
#/vis/scene/add/axes 0 0 0 1 m
@@ -75,3 +97,19 @@
#
# For file-based drivers, use this to create an empty detector view:
#/vis/viewer/flush
/gps/particle e-
/gps/energy 10 MeV
/gps/pos/type Plane
/gps/pos/shape Circle
/gps/pos/radius 0.5 mm
/gps/pos/centre 0.0 0.0 0.0 cm
/gps/pos/rot1 0 1 0
/gps/pos/rot2 0 0 1
/gps/ang/type iso
/gps/ang/mintheta 0.0 deg
/gps/ang/maxtheta 90.0 deg
examples/extended/optical/wls/wls.cc
+4
View File
@@ -69,6 +69,10 @@ int main(int argc, char** argv)
G4VModularPhysicsList* physicsList = new FTFP_BERT;
physicsList->ReplacePhysics(new G4EmStandardPhysics_option4());
G4OpticalPhysics* opticalPhysics = new G4OpticalPhysics();
auto opticalParams = G4OpticalParameters::Instance();
opticalParams->SetBoundaryInvokeSD(true);
physicsList->RegisterPhysics(opticalPhysics);
runManager->SetUserInitialization(physicsList);
examples/extended/optical/wls/wls.out
+162 -164
View File
@@ -11,7 +11,7 @@ Environment variable "G4FORCE_RUN_MANAGER_TYPE" enabled with value == Serial. Fo
**************************************************************
Geant4 version Name: geant4-10-07-ref-06 (25-June-2021)
Geant4 version Name: geant4-10-07-ref-07 (31-August-2021)
Copyright : Geant4 Collaboration
References : NIM A 506 (2003), 250-303
: IEEE-TNS 53 (2006), 270-278
@@ -33,7 +33,6 @@ Registered graphics systems are:
G4HepRep (HepRepXML)
G4HepRepFile (HepRepFile)
RayTracer (RayTracer)
VRML1FILE (VRML1FILE)
VRML2FILE (VRML2FILE)
gMocrenFile (gMocrenFile)
OpenGLImmediateQt (OGLIQt, OGLI)
@@ -202,29 +201,29 @@ has been modified since last Run.
phot: for gamma SubType=12 BuildTable=0
LambdaPrime table from 200 keV to 100 TeV in 174 bins
===== EM models for the G4Region DefaultRegionForTheWorld ======
LivermorePhElectric : Emin= 0 meV Emax= 100 TeV SauterGavrila Fluo
LivermorePhElectric : Emin= 0 Emax= 100 TeV SauterGavrila Fluo
compt: for gamma SubType=13 BuildTable=1
Lambda table from 100 eV to 1 MeV, 20 bins/decade, spline: 1
LambdaPrime table from 1 MeV to 100 TeV in 160 bins
===== EM models for the G4Region DefaultRegionForTheWorld ======
LowEPComptonModel : Emin= 0 meV Emax= 20 MeV Fluo
LowEPComptonModel : Emin= 0 Emax= 20 MeV Fluo
KleinNishina : Emin= 20 MeV Emax= 100 TeV Fluo
conv: for gamma SubType=14 BuildTable=1
Lambda table from 1.022 MeV to 100 TeV, 20 bins/decade, spline: 1
===== EM models for the G4Region DefaultRegionForTheWorld ======
BetheHeitler5D : Emin= 0 meV Emax= 100 TeV ModifiedTsai
BetheHeitler5D : Emin= 0 Emax= 100 TeV ModifiedTsai
Rayl: for gamma SubType=11 BuildTable=1
Lambda table from 100 eV to 100 keV, 20 bins/decade, spline: 0
LambdaPrime table from 100 keV to 100 TeV in 180 bins
===== EM models for the G4Region DefaultRegionForTheWorld ======
LivermoreRayleigh : Emin= 0 meV Emax= 100 TeV CullenGenerator
LivermoreRayleigh : Emin= 0 Emax= 100 TeV CullenGenerator
msc: for e- SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
GoudsmitSaunderson : Emin= 0 meV Emax= 100 MeV Nbins=120 100 eV - 100 MeV
GoudsmitSaunderson : Emin= 0 Emax= 100 MeV Nbins=120 100 eV - 100 MeV
StepLim=SafetyPlus Rfact=0.08 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
WentzelVIUni : Emin= 100 MeV Emax= 100 TeV Nbins=120 100 MeV - 100 TeV
StepLim=SafetyPlus Rfact=0.08 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
@@ -234,7 +233,7 @@ eIoni: for e- XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.2, 0.01 mm), integ: 1, fluct: 1, linLossLim= 0.01
===== EM models for the G4Region DefaultRegionForTheWorld ======
LowEnergyIoni : Emin= 0 meV Emax= 100 keV deltaVI
LowEnergyIoni : Emin= 0 Emax= 100 keV deltaVI
MollerBhabha : Emin= 100 keV Emax= 100 TeV deltaVI
eBrem: for e- XStype:4 SubType=3
@@ -242,7 +241,7 @@ eBrem: for e- XStype:4 SubType=3
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
LPM flag: 1 for E > 1 GeV, VertexHighEnergyTh(GeV)= 100000
===== EM models for the G4Region DefaultRegionForTheWorld ======
eBremSB : Emin= 0 meV Emax= 1 GeV AngularGen2BS
eBremSB : Emin= 0 Emax= 1 GeV AngularGen2BS
eBremLPM : Emin= 1 GeV Emax= 100 TeV AngularGen2BS
ePairProd: for e- XStype:1 SubType=4
@@ -250,7 +249,7 @@ ePairProd: for e- XStype:1 SubType=4
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
Sampling table 25x1001 from 0.1 GeV to 100 TeV
===== EM models for the G4Region DefaultRegionForTheWorld ======
ePairProd : Emin= 0 meV Emax= 100 TeV ModifiedMephi
ePairProd : Emin= 0 Emax= 100 TeV ModifiedMephi
CoulombScat: for e- XStype:3 SubType=1 BuildTable=1
Lambda table from 100 MeV to 100 TeV, 20 bins/decade, spline: 1
@@ -260,7 +259,7 @@ CoulombScat: for e- XStype:3 SubType=1 BuildTable=1
msc: for e+ SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
GoudsmitSaunderson : Emin= 0 meV Emax= 100 MeV Nbins=120 100 eV - 100 MeV
GoudsmitSaunderson : Emin= 0 Emax= 100 MeV Nbins=120 100 eV - 100 MeV
StepLim=SafetyPlus Rfact=0.08 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
WentzelVIUni : Emin= 100 MeV Emax= 100 TeV Nbins=120 100 MeV - 100 TeV
StepLim=SafetyPlus Rfact=0.08 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
@@ -270,7 +269,7 @@ eIoni: for e+ XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.2, 0.01 mm), integ: 1, fluct: 1, linLossLim= 0.01
===== EM models for the G4Region DefaultRegionForTheWorld ======
PenIoni : Emin= 0 meV Emax= 100 keV
PenIoni : Emin= 0 Emax= 100 keV
MollerBhabha : Emin= 100 keV Emax= 100 TeV deltaVI
eBrem: for e+ XStype:4 SubType=3
@@ -278,7 +277,7 @@ eBrem: for e+ XStype:4 SubType=3
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
LPM flag: 1 for E > 1 GeV, VertexHighEnergyTh(GeV)= 100000
===== EM models for the G4Region DefaultRegionForTheWorld ======
eBremSB : Emin= 0 meV Emax= 1 GeV AngularGen2BS
eBremSB : Emin= 0 Emax= 1 GeV AngularGen2BS
eBremLPM : Emin= 1 GeV Emax= 100 TeV AngularGen2BS
ePairProd: for e+ XStype:1 SubType=4
@@ -286,11 +285,11 @@ ePairProd: for e+ XStype:1 SubType=4
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
Sampling table 25x1001 from 0.1 GeV to 100 TeV
===== EM models for the G4Region DefaultRegionForTheWorld ======
ePairProd : Emin= 0 meV Emax= 100 TeV ModifiedMephi
ePairProd : Emin= 0 Emax= 100 TeV ModifiedMephi
annihil: for e+ XStype:2 SubType=5 BuildTable=0
===== EM models for the G4Region DefaultRegionForTheWorld ======
eplus2gg : Emin= 0 meV Emax= 100 TeV
eplus2gg : Emin= 0 Emax= 100 TeV
CoulombScat: for e+ XStype:3 SubType=1 BuildTable=1
Lambda table from 100 MeV to 100 TeV, 20 bins/decade, spline: 1
@@ -300,7 +299,7 @@ CoulombScat: for e+ XStype:3 SubType=1 BuildTable=1
msc: for proton SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
WentzelVIUni : Emin= 0 meV Emax= 100 TeV Nbins=240 100 eV - 100 TeV
WentzelVIUni : Emin= 0 Emax= 100 TeV Nbins=240 100 eV - 100 TeV
StepLim=Minimal Rfact=0.2 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
hIoni: for proton XStype:1 SubType=2
@@ -308,35 +307,35 @@ hIoni: for proton XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.1, 0.05 mm), integ: 1, fluct: 1, linLossLim= 0.01
===== EM models for the G4Region DefaultRegionForTheWorld ======
Bragg : Emin= 0 meV Emax= 2 MeV deltaVI
Bragg : Emin= 0 Emax= 2 MeV deltaVI
BetheBloch : Emin= 2 MeV Emax= 100 TeV deltaVI
hBrems: for proton XStype:1 SubType=3
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
===== EM models for the G4Region DefaultRegionForTheWorld ======
hBrem : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hBrem : Emin= 0 Emax= 100 TeV ModifiedMephi
hPairProd: for proton XStype:1 SubType=4
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
Sampling table 17x1001 from 7.50618 GeV to 100 TeV
===== EM models for the G4Region DefaultRegionForTheWorld ======
hPairProd : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hPairProd : Emin= 0 Emax= 100 TeV ModifiedMephi
CoulombScat: for proton XStype:3 SubType=1 BuildTable=1
Lambda table from threshold to 100 TeV, 20 bins/decade, spline: 1
ThetaMin(p) < Theta(degree) < 180 pLimit(GeV^1)= 0.139531
===== EM models for the G4Region DefaultRegionForTheWorld ======
eCoulombScattering : Emin= 0 meV Emax= 100 TeV
eCoulombScattering : Emin= 0 Emax= 100 TeV
nuclearStopping: for proton SubType=8 BuildTable=0
===== EM models for the G4Region DefaultRegionForTheWorld ======
ICRU49NucStopping : Emin= 0 meV Emax= 1 MeV
ICRU49NucStopping : Emin= 0 Emax= 1 MeV
msc: for GenericIon SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
UrbanMsc : Emin= 0 meV Emax= 100 TeV
UrbanMsc : Emin= 0 Emax= 100 TeV
StepLim=Minimal Rfact=0.2 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
ionIoni: for GenericIon XStype:1 SubType=2
@@ -344,15 +343,15 @@ ionIoni: for GenericIon XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.1, 0.02 mm), integ: 1, fluct: 1, linLossLim= 0.02
===== EM models for the G4Region DefaultRegionForTheWorld ======
ParamICRU73 : Emin= 0 meV Emax= 100 TeV deltaVI
ParamICRU73 : Emin= 0 Emax= 100 TeV deltaVI
nuclearStopping: for GenericIon SubType=8 BuildTable=0
===== EM models for the G4Region DefaultRegionForTheWorld ======
ICRU49NucStopping : Emin= 0 meV Emax= 1 MeV
ICRU49NucStopping : Emin= 0 Emax= 1 MeV
msc: for alpha SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
UrbanMsc : Emin= 0 meV Emax= 100 TeV
UrbanMsc : Emin= 0 Emax= 100 TeV
StepLim=Minimal Rfact=0.2 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
ionIoni: for alpha XStype:1 SubType=2
@@ -360,16 +359,16 @@ ionIoni: for alpha XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.1, 0.02 mm), integ: 1, fluct: 1, linLossLim= 0.02
===== EM models for the G4Region DefaultRegionForTheWorld ======
BraggIon : Emin= 0 meV Emax=7.9452 MeV deltaVI
BraggIon : Emin= 0 Emax=7.9452 MeV deltaVI
BetheBloch : Emin=7.9452 MeV Emax= 100 TeV deltaVI
nuclearStopping: for alpha SubType=8 BuildTable=0
===== EM models for the G4Region DefaultRegionForTheWorld ======
ICRU49NucStopping : Emin= 0 meV Emax= 1 MeV
ICRU49NucStopping : Emin= 0 Emax= 1 MeV
msc: for anti_proton SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
WentzelVIUni : Emin= 0 meV Emax= 100 TeV Nbins=240 100 eV - 100 TeV
WentzelVIUni : Emin= 0 Emax= 100 TeV Nbins=240 100 eV - 100 TeV
StepLim=Minimal Rfact=0.2 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
hIoni: for anti_proton XStype:1 SubType=2
@@ -377,31 +376,31 @@ hIoni: for anti_proton XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.1, 0.05 mm), integ: 1, fluct: 1, linLossLim= 0.01
===== EM models for the G4Region DefaultRegionForTheWorld ======
ICRU73QO : Emin= 0 meV Emax= 2 MeV deltaVI
ICRU73QO : Emin= 0 Emax= 2 MeV deltaVI
BetheBloch : Emin= 2 MeV Emax= 100 TeV deltaVI
hBrems: for anti_proton XStype:1 SubType=3
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
===== EM models for the G4Region DefaultRegionForTheWorld ======
hBrem : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hBrem : Emin= 0 Emax= 100 TeV ModifiedMephi
hPairProd: for anti_proton XStype:1 SubType=4
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
Sampling table 17x1001 from 7.50618 GeV to 100 TeV
===== EM models for the G4Region DefaultRegionForTheWorld ======
hPairProd : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hPairProd : Emin= 0 Emax= 100 TeV ModifiedMephi
CoulombScat: for anti_proton XStype:3 SubType=1 BuildTable=1
Lambda table from threshold to 100 TeV, 20 bins/decade, spline: 1
ThetaMin(p) < Theta(degree) < 180 pLimit(GeV^1)= 0.139531
===== EM models for the G4Region DefaultRegionForTheWorld ======
eCoulombScattering : Emin= 0 meV Emax= 100 TeV
eCoulombScattering : Emin= 0 Emax= 100 TeV
msc: for kaon+ SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
WentzelVIUni : Emin= 0 meV Emax= 100 TeV Nbins=240 100 eV - 100 TeV
WentzelVIUni : Emin= 0 Emax= 100 TeV Nbins=240 100 eV - 100 TeV
StepLim=Minimal Rfact=0.2 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
hIoni: for kaon+ XStype:1 SubType=2
@@ -409,31 +408,31 @@ hIoni: for kaon+ XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.1, 0.05 mm), integ: 1, fluct: 1, linLossLim= 0.01
===== EM models for the G4Region DefaultRegionForTheWorld ======
Bragg : Emin= 0 meV Emax=1.05231 MeV deltaVI
Bragg : Emin= 0 Emax=1.05231 MeV deltaVI
BetheBloch : Emin=1.05231 MeV Emax= 100 TeV deltaVI
hBrems: for kaon+ XStype:1 SubType=3
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
===== EM models for the G4Region DefaultRegionForTheWorld ======
hBrem : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hBrem : Emin= 0 Emax= 100 TeV ModifiedMephi
hPairProd: for kaon+ XStype:1 SubType=4
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
Sampling table 18x1001 from 3.94942 GeV to 100 TeV
===== EM models for the G4Region DefaultRegionForTheWorld ======
hPairProd : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hPairProd : Emin= 0 Emax= 100 TeV ModifiedMephi
CoulombScat: for kaon+ XStype:3 SubType=1 BuildTable=1
Lambda table from threshold to 100 TeV, 20 bins/decade, spline: 1
ThetaMin(p) < Theta(degree) < 180 pLimit(GeV^1)= 0.139531
===== EM models for the G4Region DefaultRegionForTheWorld ======
eCoulombScattering : Emin= 0 meV Emax= 100 TeV
eCoulombScattering : Emin= 0 Emax= 100 TeV
msc: for kaon- SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
WentzelVIUni : Emin= 0 meV Emax= 100 TeV Nbins=240 100 eV - 100 TeV
WentzelVIUni : Emin= 0 Emax= 100 TeV Nbins=240 100 eV - 100 TeV
StepLim=Minimal Rfact=0.2 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
hIoni: for kaon- XStype:1 SubType=2
@@ -441,31 +440,31 @@ hIoni: for kaon- XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.1, 0.05 mm), integ: 1, fluct: 1, linLossLim= 0.01
===== EM models for the G4Region DefaultRegionForTheWorld ======
ICRU73QO : Emin= 0 meV Emax=1.05231 MeV deltaVI
ICRU73QO : Emin= 0 Emax=1.05231 MeV deltaVI
BetheBloch : Emin=1.05231 MeV Emax= 100 TeV deltaVI
hBrems: for kaon- XStype:1 SubType=3
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
===== EM models for the G4Region DefaultRegionForTheWorld ======
hBrem : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hBrem : Emin= 0 Emax= 100 TeV ModifiedMephi
hPairProd: for kaon- XStype:1 SubType=4
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
Sampling table 18x1001 from 3.94942 GeV to 100 TeV
===== EM models for the G4Region DefaultRegionForTheWorld ======
hPairProd : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hPairProd : Emin= 0 Emax= 100 TeV ModifiedMephi
CoulombScat: for kaon- XStype:3 SubType=1 BuildTable=1
Used Lambda table of kaon+
ThetaMin(p) < Theta(degree) < 180 pLimit(GeV^1)= 0.139531
===== EM models for the G4Region DefaultRegionForTheWorld ======
eCoulombScattering : Emin= 0 meV Emax= 100 TeV
eCoulombScattering : Emin= 0 Emax= 100 TeV
msc: for mu+ SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
WentzelVIUni : Emin= 0 meV Emax= 100 TeV Nbins=240 100 eV - 100 TeV
WentzelVIUni : Emin= 0 Emax= 100 TeV Nbins=240 100 eV - 100 TeV
StepLim=Minimal Rfact=0.2 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
muIoni: for mu+ XStype:1 SubType=2
@@ -473,7 +472,7 @@ muIoni: for mu+ XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.1, 0.05 mm), integ: 1, fluct: 1, linLossLim= 0.01
===== EM models for the G4Region DefaultRegionForTheWorld ======
Bragg : Emin= 0 meV Emax= 200 keV deltaVI
Bragg : Emin= 0 Emax= 200 keV deltaVI
BetheBloch : Emin= 200 keV Emax= 1 GeV deltaVI
MuBetheBloch : Emin= 1 GeV Emax= 100 TeV
@@ -481,24 +480,24 @@ muBrems: for mu+ XStype:1 SubType=3
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
===== EM models for the G4Region DefaultRegionForTheWorld ======
MuBrem : Emin= 0 meV Emax= 100 TeV ModifiedMephi
MuBrem : Emin= 0 Emax= 100 TeV ModifiedMephi
muPairProd: for mu+ XStype:1 SubType=4
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
Sampling table 21x1001 from 1 GeV to 100 TeV
===== EM models for the G4Region DefaultRegionForTheWorld ======
muPairProd : Emin= 0 meV Emax= 100 TeV ModifiedMephi
muPairProd : Emin= 0 Emax= 100 TeV ModifiedMephi
CoulombScat: for mu+ XStype:3 SubType=1 BuildTable=1
Lambda table from threshold to 100 TeV, 20 bins/decade, spline: 1
ThetaMin(p) < Theta(degree) < 180 pLimit(GeV^1)= 0.139531
===== EM models for the G4Region DefaultRegionForTheWorld ======
eCoulombScattering : Emin= 0 meV Emax= 100 TeV
eCoulombScattering : Emin= 0 Emax= 100 TeV
msc: for mu- SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
WentzelVIUni : Emin= 0 meV Emax= 100 TeV Nbins=240 100 eV - 100 TeV
WentzelVIUni : Emin= 0 Emax= 100 TeV Nbins=240 100 eV - 100 TeV
StepLim=Minimal Rfact=0.2 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
muIoni: for mu- XStype:1 SubType=2
@@ -506,7 +505,7 @@ muIoni: for mu- XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.1, 0.05 mm), integ: 1, fluct: 1, linLossLim= 0.01
===== EM models for the G4Region DefaultRegionForTheWorld ======
ICRU73QO : Emin= 0 meV Emax= 200 keV deltaVI
ICRU73QO : Emin= 0 Emax= 200 keV deltaVI
BetheBloch : Emin= 200 keV Emax= 1 GeV deltaVI
MuBetheBloch : Emin= 1 GeV Emax= 100 TeV
@@ -514,24 +513,24 @@ muBrems: for mu- XStype:1 SubType=3
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
===== EM models for the G4Region DefaultRegionForTheWorld ======
MuBrem : Emin= 0 meV Emax= 100 TeV ModifiedMephi
MuBrem : Emin= 0 Emax= 100 TeV ModifiedMephi
muPairProd: for mu- XStype:1 SubType=4
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
Sampling table 21x1001 from 1 GeV to 100 TeV
===== EM models for the G4Region DefaultRegionForTheWorld ======
muPairProd : Emin= 0 meV Emax= 100 TeV ModifiedMephi
muPairProd : Emin= 0 Emax= 100 TeV ModifiedMephi
CoulombScat: for mu- XStype:3 SubType=1 BuildTable=1
Used Lambda table of mu+
ThetaMin(p) < Theta(degree) < 180 pLimit(GeV^1)= 0.139531
===== EM models for the G4Region DefaultRegionForTheWorld ======
eCoulombScattering : Emin= 0 meV Emax= 100 TeV
eCoulombScattering : Emin= 0 Emax= 100 TeV
msc: for pi+ SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
WentzelVIUni : Emin= 0 meV Emax= 100 TeV Nbins=240 100 eV - 100 TeV
WentzelVIUni : Emin= 0 Emax= 100 TeV Nbins=240 100 eV - 100 TeV
StepLim=Minimal Rfact=0.2 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
hIoni: for pi+ XStype:1 SubType=2
@@ -539,31 +538,31 @@ hIoni: for pi+ XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.1, 0.05 mm), integ: 1, fluct: 1, linLossLim= 0.01
===== EM models for the G4Region DefaultRegionForTheWorld ======
Bragg : Emin= 0 meV Emax=297.505 keV deltaVI
Bragg : Emin= 0 Emax=297.505 keV deltaVI
BetheBloch : Emin=297.505 keV Emax= 100 TeV deltaVI
hBrems: for pi+ XStype:1 SubType=3
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
===== EM models for the G4Region DefaultRegionForTheWorld ======
hBrem : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hBrem : Emin= 0 Emax= 100 TeV ModifiedMephi
hPairProd: for pi+ XStype:1 SubType=4
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
Sampling table 20x1001 from 1.11656 GeV to 100 TeV
===== EM models for the G4Region DefaultRegionForTheWorld ======
hPairProd : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hPairProd : Emin= 0 Emax= 100 TeV ModifiedMephi
CoulombScat: for pi+ XStype:3 SubType=1 BuildTable=1
Lambda table from threshold to 100 TeV, 20 bins/decade, spline: 1
ThetaMin(p) < Theta(degree) < 180 pLimit(GeV^1)= 0.139531
===== EM models for the G4Region DefaultRegionForTheWorld ======
eCoulombScattering : Emin= 0 meV Emax= 100 TeV
eCoulombScattering : Emin= 0 Emax= 100 TeV
msc: for pi- SubType= 10
===== EM models for the G4Region DefaultRegionForTheWorld ======
WentzelVIUni : Emin= 0 meV Emax= 100 TeV Nbins=240 100 eV - 100 TeV
WentzelVIUni : Emin= 0 Emax= 100 TeV Nbins=240 100 eV - 100 TeV
StepLim=Minimal Rfact=0.2 Gfact=2.5 Sfact=0.6 DispFlag:1 Skin=3 Llim=1 mm
hIoni: for pi- XStype:1 SubType=2
@@ -571,27 +570,27 @@ hIoni: for pi- XStype:1 SubType=2
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
StepFunction=(0.1, 0.05 mm), integ: 1, fluct: 1, linLossLim= 0.01
===== EM models for the G4Region DefaultRegionForTheWorld ======
ICRU73QO : Emin= 0 meV Emax=297.505 keV deltaVI
ICRU73QO : Emin= 0 Emax=297.505 keV deltaVI
BetheBloch : Emin=297.505 keV Emax= 100 TeV deltaVI
hBrems: for pi- XStype:1 SubType=3
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
===== EM models for the G4Region DefaultRegionForTheWorld ======
hBrem : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hBrem : Emin= 0 Emax= 100 TeV ModifiedMephi
hPairProd: for pi- XStype:1 SubType=4
dE/dx and range tables from 100 eV to 100 TeV in 240 bins
Lambda tables from threshold to 100 TeV, 20 bins/decade, spline: 1
Sampling table 20x1001 from 1.11656 GeV to 100 TeV
===== EM models for the G4Region DefaultRegionForTheWorld ======
hPairProd : Emin= 0 meV Emax= 100 TeV ModifiedMephi
hPairProd : Emin= 0 Emax= 100 TeV ModifiedMephi
CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Used Lambda table of pi+
ThetaMin(p) < Theta(degree) < 180 pLimit(GeV^1)= 0.139531
===== EM models for the G4Region DefaultRegionForTheWorld ======
eCoulombScattering : Emin= 0 meV Emax= 100 TeV
eCoulombScattering : Emin= 0 Emax= 100 TeV
====================================================================
HADRONIC PROCESSES SUMMARY (verbose level 1)
@@ -600,17 +599,17 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for neutron
Process: hadElastic
Model: hElasticCHIPS: 0 meV ---> 100 TeV
Cr_sctns: G4NeutronElasticXS: 0 meV ---> 100 TeV
Model: hElasticCHIPS: 0 ---> 100 TeV
Cr_sctns: G4NeutronElasticXS: 0 ---> 100 TeV
Process: neutronInelastic
Model: FTFP: 3 GeV ---> 100 TeV
Model: BertiniCascade: 0 meV ---> 6 GeV
Cr_sctns: G4NeutronInelasticXS: 0 meV ---> 100 TeV
Model: BertiniCascade: 0 ---> 6 GeV
Cr_sctns: G4NeutronInelasticXS: 0 ---> 100 TeV
Process: nCapture
Model: nRadCapture: 0 meV ---> 100 TeV
Cr_sctns: G4NeutronCaptureXS: 0 meV ---> 100 TeV
Model: nRadCapture: 0 ---> 100 TeV
Cr_sctns: G4NeutronCaptureXS: 0 ---> 100 TeV
Process: nKiller
@@ -618,67 +617,67 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for B-
Process: hadElastic
Model: hElasticLHEP: 0 meV ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: hElasticLHEP: 0 ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
Process: B-Inelastic
Model: FTFP: 0 meV ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: FTFP: 0 ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
---------------------------------------------------
Hadronic Processes for D-
Process: hadElastic
Model: hElasticLHEP: 0 meV ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: hElasticLHEP: 0 ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
Process: D-Inelastic
Model: FTFP: 0 meV ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: FTFP: 0 ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
---------------------------------------------------
Hadronic Processes for GenericIon
Process: ionInelastic
Model: Binary Light Ion Cascade: 0 meV/n ---> 6 GeV/n
Model: Binary Light Ion Cascade: 0 /n ---> 6 GeV/n
Model: FTFP: 3 GeV/n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 meV ---> 25.6 PeV
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 ---> 25.6 PeV
---------------------------------------------------
Hadronic Processes for He3
Process: hadElastic
Model: hElasticLHEP: 0 meV/n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 meV ---> 25.6 PeV
Model: hElasticLHEP: 0 /n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 ---> 25.6 PeV
Process: He3Inelastic
Model: Binary Light Ion Cascade: 0 meV/n ---> 6 GeV/n
Model: Binary Light Ion Cascade: 0 /n ---> 6 GeV/n
Model: FTFP: 3 GeV/n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 meV ---> 25.6 PeV
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 ---> 25.6 PeV
---------------------------------------------------
Hadronic Processes for alpha
Process: hadElastic
Model: hElasticLHEP: 0 meV/n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 meV ---> 25.6 PeV
Model: hElasticLHEP: 0 /n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 ---> 25.6 PeV
Process: alphaInelastic
Model: Binary Light Ion Cascade: 0 meV/n ---> 6 GeV/n
Model: Binary Light Ion Cascade: 0 /n ---> 6 GeV/n
Model: FTFP: 3 GeV/n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 meV ---> 25.6 PeV
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 ---> 25.6 PeV
---------------------------------------------------
Hadronic Processes for anti_He3
Process: hadElastic
Model: hElasticLHEP: 0 meV/n ---> 100.1 MeV/n
Model: hElasticLHEP: 0 /n ---> 100.1 MeV/n
Model: AntiAElastic: 100 MeV/n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: anti_He3Inelastic
Model: FTFP: 0 meV/n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Model: FTFP: 0 /n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: hFritiofCaptureAtRest
@@ -686,13 +685,13 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for anti_alpha
Process: hadElastic
Model: hElasticLHEP: 0 meV/n ---> 100.1 MeV/n
Model: hElasticLHEP: 0 /n ---> 100.1 MeV/n
Model: AntiAElastic: 100 MeV/n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: anti_alphaInelastic
Model: FTFP: 0 meV/n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Model: FTFP: 0 /n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: hFritiofCaptureAtRest
@@ -700,13 +699,13 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for anti_deuteron
Process: hadElastic
Model: hElasticLHEP: 0 meV/n ---> 100.1 MeV/n
Model: hElasticLHEP: 0 /n ---> 100.1 MeV/n
Model: AntiAElastic: 100 MeV/n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: anti_deuteronInelastic
Model: FTFP: 0 meV/n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Model: FTFP: 0 /n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: hFritiofCaptureAtRest
@@ -714,12 +713,12 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for anti_lambda
Process: hadElastic
Model: hElasticLHEP: 0 meV ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: hElasticLHEP: 0 ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
Process: anti_lambdaInelastic
Model: FTFP: 0 meV ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: FTFP: 0 ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
Process: hFritiofCaptureAtRest
@@ -727,13 +726,13 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for anti_neutron
Process: hadElastic
Model: hElasticLHEP: 0 meV ---> 100.1 MeV
Model: hElasticLHEP: 0 ---> 100.1 MeV
Model: AntiAElastic: 100 MeV ---> 100 TeV
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: anti_neutronInelastic
Model: FTFP: 0 meV ---> 100 TeV
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Model: FTFP: 0 ---> 100 TeV
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: hFritiofCaptureAtRest
@@ -741,13 +740,13 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for anti_proton
Process: hadElastic
Model: hElasticLHEP: 0 meV ---> 100.1 MeV
Model: hElasticLHEP: 0 ---> 100.1 MeV
Model: AntiAElastic: 100 MeV ---> 100 TeV
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: anti_protonInelastic
Model: FTFP: 0 meV ---> 100 TeV
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Model: FTFP: 0 ---> 100 TeV
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: hFritiofCaptureAtRest
@@ -755,13 +754,13 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for anti_triton
Process: hadElastic
Model: hElasticLHEP: 0 meV/n ---> 100.1 MeV/n
Model: hElasticLHEP: 0 /n ---> 100.1 MeV/n
Model: AntiAElastic: 100 MeV/n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: anti_tritonInelastic
Model: FTFP: 0 meV/n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 meV ---> 25.6 PeV
Model: FTFP: 0 /n ---> 100 TeV/n
Cr_sctns: AntiAGlauber: 0 ---> 25.6 PeV
Process: hFritiofCaptureAtRest
@@ -769,60 +768,60 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for deuteron
Process: hadElastic
Model: hElasticLHEP: 0 meV/n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 meV ---> 25.6 PeV
Model: hElasticLHEP: 0 /n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 ---> 25.6 PeV
Process: dInelastic
Model: Binary Light Ion Cascade: 0 meV/n ---> 6 GeV/n
Model: Binary Light Ion Cascade: 0 /n ---> 6 GeV/n
Model: FTFP: 3 GeV/n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 meV ---> 25.6 PeV
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 ---> 25.6 PeV
---------------------------------------------------
Hadronic Processes for e+
Process: electronNuclear
Model: G4ElectroVDNuclearModel: 0 meV ---> 1 PeV
Cr_sctns: ElectroNuclearXS: 0 meV ---> 100 TeV
Process: positronNuclear
Model: G4ElectroVDNuclearModel: 0 ---> 1 PeV
Cr_sctns: ElectroNuclearXS: 0 ---> 100 TeV
---------------------------------------------------
Hadronic Processes for e-
Process: electronNuclear
Model: G4ElectroVDNuclearModel: 0 meV ---> 1 PeV
Cr_sctns: ElectroNuclearXS: 0 meV ---> 100 TeV
Model: G4ElectroVDNuclearModel: 0 ---> 1 PeV
Cr_sctns: ElectroNuclearXS: 0 ---> 100 TeV
---------------------------------------------------
Hadronic Processes for gamma
Process: photonNuclear
Model: GammaNPreco: 0 meV ---> 200 MeV
Model: GammaNPreco: 0 ---> 200 MeV
Model: BertiniCascade: 199 MeV ---> 6 GeV
Model: TheoFSGenerator: 3 GeV ---> 100 TeV
Cr_sctns: PhotoNuclearXS: 0 meV ---> 100 TeV
Cr_sctns: GammaNuclearXS: 0 ---> 100 TeV
---------------------------------------------------
Hadronic Processes for kaon+
Process: hadElastic
Model: hElasticLHEP: 0 meV ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: hElasticLHEP: 0 ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
Process: kaon+Inelastic
Model: FTFP: 3 GeV ---> 100 TeV
Model: BertiniCascade: 0 meV ---> 6 GeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: BertiniCascade: 0 ---> 6 GeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
---------------------------------------------------
Hadronic Processes for kaon-
Process: hadElastic
Model: hElasticLHEP: 0 meV ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: hElasticLHEP: 0 ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
Process: kaon-Inelastic
Model: FTFP: 3 GeV ---> 100 TeV
Model: BertiniCascade: 0 meV ---> 6 GeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: BertiniCascade: 0 ---> 6 GeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
Process: hBertiniCaptureAtRest
@@ -830,27 +829,27 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for lambda
Process: hadElastic
Model: hElasticLHEP: 0 meV ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: hElasticLHEP: 0 ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
Process: lambdaInelastic
Model: FTFP: 3 GeV ---> 100 TeV
Model: BertiniCascade: 0 meV ---> 6 GeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: BertiniCascade: 0 ---> 6 GeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
---------------------------------------------------
Hadronic Processes for mu+
Process: muonNuclear
Model: G4MuonVDNuclearModel: 0 meV ---> 1 PeV
Cr_sctns: KokoulinMuonNuclearXS: 0 meV ---> 100 TeV
Model: G4MuonVDNuclearModel: 0 ---> 1 PeV
Cr_sctns: KokoulinMuonNuclearXS: 0 ---> 100 TeV
---------------------------------------------------
Hadronic Processes for mu-
Process: muonNuclear
Model: G4MuonVDNuclearModel: 0 meV ---> 1 PeV
Cr_sctns: KokoulinMuonNuclearXS: 0 meV ---> 100 TeV
Model: G4MuonVDNuclearModel: 0 ---> 1 PeV
Cr_sctns: KokoulinMuonNuclearXS: 0 ---> 100 TeV
Process: muMinusCaptureAtRest
@@ -858,25 +857,25 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for pi+
Process: hadElastic
Model: hElasticGlauber: 0 meV ---> 100 TeV
Cr_sctns: BarashenkovGlauberGribov: 0 meV ---> 100 TeV
Model: hElasticGlauber: 0 ---> 100 TeV
Cr_sctns: BarashenkovGlauberGribov: 0 ---> 100 TeV
Process: pi+Inelastic
Model: FTFP: 3 GeV ---> 100 TeV
Model: BertiniCascade: 0 meV ---> 6 GeV
Cr_sctns: BarashenkovGlauberGribov: 0 meV ---> 100 TeV
Model: BertiniCascade: 0 ---> 6 GeV
Cr_sctns: BarashenkovGlauberGribov: 0 ---> 100 TeV
---------------------------------------------------
Hadronic Processes for pi-
Process: hadElastic
Model: hElasticGlauber: 0 meV ---> 100 TeV
Cr_sctns: BarashenkovGlauberGribov: 0 meV ---> 100 TeV
Model: hElasticGlauber: 0 ---> 100 TeV
Cr_sctns: BarashenkovGlauberGribov: 0 ---> 100 TeV
Process: pi-Inelastic
Model: FTFP: 3 GeV ---> 100 TeV
Model: BertiniCascade: 0 meV ---> 6 GeV
Cr_sctns: BarashenkovGlauberGribov: 0 meV ---> 100 TeV
Model: BertiniCascade: 0 ---> 6 GeV
Cr_sctns: BarashenkovGlauberGribov: 0 ---> 100 TeV
Process: hBertiniCaptureAtRest
@@ -884,25 +883,25 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for proton
Process: hadElastic
Model: hElasticCHIPS: 0 meV ---> 100 TeV
Cr_sctns: BarashenkovGlauberGribov: 0 meV ---> 100 TeV
Model: hElasticCHIPS: 0 ---> 100 TeV
Cr_sctns: BarashenkovGlauberGribov: 0 ---> 100 TeV
Process: protonInelastic
Model: FTFP: 3 GeV ---> 100 TeV
Model: BertiniCascade: 0 meV ---> 6 GeV
Cr_sctns: BarashenkovGlauberGribov: 0 meV ---> 100 TeV
Model: BertiniCascade: 0 ---> 6 GeV
Cr_sctns: BarashenkovGlauberGribov: 0 ---> 100 TeV
---------------------------------------------------
Hadronic Processes for sigma-
Process: hadElastic
Model: hElasticLHEP: 0 meV ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: hElasticLHEP: 0 ---> 100 TeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
Process: sigma-Inelastic
Model: FTFP: 3 GeV ---> 100 TeV
Model: BertiniCascade: 0 meV ---> 6 GeV
Cr_sctns: Glauber-Gribov: 0 meV ---> 100 TeV
Model: BertiniCascade: 0 ---> 6 GeV
Cr_sctns: Glauber-Gribov: 0 ---> 100 TeV
Process: hBertiniCaptureAtRest
@@ -910,13 +909,13 @@ CoulombScat: for pi- XStype:3 SubType=1 BuildTable=1
Hadronic Processes for triton
Process: hadElastic
Model: hElasticLHEP: 0 meV/n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 meV ---> 25.6 PeV
Model: hElasticLHEP: 0 /n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 ---> 25.6 PeV
Process: tInelastic
Model: Binary Light Ion Cascade: 0 meV/n ---> 6 GeV/n
Model: Binary Light Ion Cascade: 0 /n ---> 6 GeV/n
Model: FTFP: 3 GeV/n ---> 100 TeV/n
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 meV ---> 25.6 PeV
Cr_sctns: Glauber-Gribov Nucl-nucl: 0 ---> 25.6 PeV
================================================================
=======================================================================
@@ -939,7 +938,6 @@ Time limit for long lived isomeres (ns) 1
Isomer production flag 1
Internal e- conversion flag 1
Store e- internal conversion data 0
Electron internal conversion ID 3
Correlated gamma emission flag 0
Max 2J for sampling of angular correlations 10
=======================================================================
@@ -1149,7 +1147,7 @@ See commands in /vis/modeling/trajectories/ for other options.
Run terminated.
Run Summary
Number of events processed : 10
User=0.020000s Real=0.013587s Sys=0.000000s
User=0.020000s Real=0.013951s Sys=0.000000s
======================== run summary =====================
Average number per event:
@@ -1231,7 +1229,7 @@ SteppingAction: status = EscapedFromReadOut
Run terminated.
Run Summary
Number of events processed : 10000
User=16.500000s Real=17.202119s Sys=0.030000s
User=17.800000s Real=18.160260s Sys=0.050000s
======================== run summary =====================
Average number per event: