Import Geant4 9.2.0 source tree

This commit is contained in:
Gabriele Cosmo
2016-06-09 15:58:43 +02:00
parent 96c8bcd0af
commit b79225fb37
7544 changed files with 245407 additions and 91099 deletions
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//
// ********************************************************************
// * 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. *
// ********************************************************************
//
// $Id: G4GDMLReadStructure.cc,v 1.52 2008/11/20 15:37:46 gcosmo Exp $
// GEANT4 tag $Name: geant4-09-02 $
//
// class G4GDMLReadStructure Implementation
//
// Original author: Zoltan Torzsok, November 2007
//
// --------------------------------------------------------------------
#include "G4GDMLReadStructure.hh"
G4GDMLAuxPairType G4GDMLReadStructure::
AuxiliaryRead(const xercesc::DOMElement* const auxiliaryElement)
{
G4GDMLAuxPairType auxpair;
const xercesc::DOMNamedNodeMap* const attributes
= auxiliaryElement->getAttributes();
XMLSize_t attributeCount = attributes->getLength();
for (XMLSize_t attribute_index=0;
attribute_index<attributeCount; attribute_index++)
{
xercesc::DOMNode* attribute_node = attributes->item(attribute_index);
if (attribute_node->getNodeType() != xercesc::DOMNode::ATTRIBUTE_NODE)
{ continue; }
const xercesc::DOMAttr* const attribute
= dynamic_cast<xercesc::DOMAttr*>(attribute_node);
const G4String attName = Transcode(attribute->getName());
const G4String attValue = Transcode(attribute->getValue());
if (attName=="auxtype") { auxpair.type = attValue; } else
if (attName=="auxvalue") { auxpair.value = eval.Evaluate(attValue); }
}
return auxpair;
}
void G4GDMLReadStructure::
BordersurfaceRead(const xercesc::DOMElement* const bordersurfaceElement)
{
G4String name;
G4VPhysicalVolume* pv1 = 0;
G4VPhysicalVolume* pv2 = 0;
G4SurfaceProperty* prop = 0;
G4int index = 0;
const xercesc::DOMNamedNodeMap* const attributes
= bordersurfaceElement->getAttributes();
XMLSize_t attributeCount = attributes->getLength();
for (XMLSize_t attribute_index=0;
attribute_index<attributeCount; attribute_index++)
{
xercesc::DOMNode* attribute_node = attributes->item(attribute_index);
if (attribute_node->getNodeType() != xercesc::DOMNode::ATTRIBUTE_NODE)
{ continue; }
const xercesc::DOMAttr* const attribute
= dynamic_cast<xercesc::DOMAttr*>(attribute_node);
const G4String attName = Transcode(attribute->getName());
const G4String attValue = Transcode(attribute->getValue());
if (attName=="name")
{ name = GenerateName(attValue); } else
if (attName=="surfaceproperty")
{ prop = GetSurfaceProperty(GenerateName(attValue)); }
}
for (xercesc::DOMNode* iter = bordersurfaceElement->getFirstChild();
iter != 0; iter = iter->getNextSibling())
{
if (iter->getNodeType() != xercesc::DOMNode::ELEMENT_NODE) { continue; }
const xercesc::DOMElement* const child
= dynamic_cast<xercesc::DOMElement*>(iter);
const G4String tag = Transcode(child->getTagName());
if (tag != "physvolref") { continue; }
if (index==0)
{ pv1 = GetPhysvol(GenerateName(RefRead(child))); index++; } else
if (index==1)
{ pv2 = GetPhysvol(GenerateName(RefRead(child))); index++; } else
break;
}
new G4LogicalBorderSurface(Strip(name),pv1,pv2,prop);
}
void G4GDMLReadStructure::
DivisionvolRead(const xercesc::DOMElement* const divisionvolElement)
{
G4String name;
G4double unit = 1.0;
G4double width = 0.0;
G4double offset = 0.0;
G4int number = 0;
EAxis axis = kUndefined;
G4LogicalVolume* logvol = 0;
const xercesc::DOMNamedNodeMap* const attributes
= divisionvolElement->getAttributes();
XMLSize_t attributeCount = attributes->getLength();
for (XMLSize_t attribute_index=0;
attribute_index<attributeCount; attribute_index++)
{
xercesc::DOMNode* attribute_node = attributes->item(attribute_index);
if (attribute_node->getNodeType() != xercesc::DOMNode::ATTRIBUTE_NODE)
{ continue; }
const xercesc::DOMAttr* const attribute
= dynamic_cast<xercesc::DOMAttr*>(attribute_node);
const G4String attName = Transcode(attribute->getName());
const G4String attValue = Transcode(attribute->getValue());
if (attName=="name") { name = attValue; } else
if (attName=="unit") { unit = eval.Evaluate(attValue); } else
if (attName=="width") { width = eval.Evaluate(attValue); } else
if (attName=="offset") { offset = eval.Evaluate(attValue); } else
if (attName=="number") { number = eval.EvaluateInteger(attValue); } else
if (attName=="axis")
{
if (attValue=="kXAxis") { axis = kXAxis; } else
if (attValue=="kYAxis") { axis = kYAxis; } else
if (attValue=="kZAxis") { axis = kZAxis; } else
if (attValue=="kRho") { axis = kRho; } else
if (attValue=="kPhi") { axis = kPhi; }
}
}
width *= unit;
offset *= unit;
for (xercesc::DOMNode* iter = divisionvolElement->getFirstChild();
iter != 0;iter = iter->getNextSibling())
{
if (iter->getNodeType() != xercesc::DOMNode::ELEMENT_NODE) { continue; }
const xercesc::DOMElement* const child
= dynamic_cast<xercesc::DOMElement*>(iter);
const G4String tag = Transcode(child->getTagName());
if (tag=="volumeref") { logvol = GetVolume(GenerateName(RefRead(child))); }
}
G4PVDivisionFactory::GetInstance();
G4PhysicalVolumesPair pair;
G4String pv_name = logvol->GetName() + "_div";
if ((number != 0) && (width == 0.0))
{
pair = G4ReflectionFactory::Instance()
->Divide(pv_name,logvol,pMotherLogical,axis,number,offset);
}
else if ((number == 0) && (width != 0.0))
{
pair = G4ReflectionFactory::Instance()
->Divide(pv_name,logvol,pMotherLogical,axis,width,offset);
}
else
{
pair = G4ReflectionFactory::Instance()
->Divide(pv_name,logvol,pMotherLogical,axis,number,width,offset);
}
if (pair.first != 0) { GeneratePhysvolName(name,pair.first); }
if (pair.second != 0) { GeneratePhysvolName(name,pair.second); }
}
G4LogicalVolume* G4GDMLReadStructure::
FileRead(const xercesc::DOMElement* const fileElement)
{
G4String name;
G4String volname;
const xercesc::DOMNamedNodeMap* const attributes
= fileElement->getAttributes();
XMLSize_t attributeCount = attributes->getLength();
for (XMLSize_t attribute_index=0;
attribute_index<attributeCount; attribute_index++)
{
xercesc::DOMNode* attribute_node = attributes->item(attribute_index);
if (attribute_node->getNodeType() != xercesc::DOMNode::ATTRIBUTE_NODE)
{ continue; }
const xercesc::DOMAttr* const attribute
= dynamic_cast<xercesc::DOMAttr*>(attribute_node);
const G4String attName = Transcode(attribute->getName());
const G4String attValue = Transcode(attribute->getValue());
if (attName=="name") { name = attValue; } else
if (attName=="volname") { volname = attValue; }
}
const G4bool IsModule = true;
G4GDMLReadStructure structure;
structure.Read(name,Validate,IsModule);
if (volname.empty())
{
return structure.GetVolume(structure.GetSetup("Default"));
}
else
{
return structure.GetVolume(structure.GenerateName(volname));
}
}
void G4GDMLReadStructure::
PhysvolRead(const xercesc::DOMElement* const physvolElement)
{
G4String name;
G4LogicalVolume* logvol = 0;
G4ThreeVector position(0.0,0.0,0.0);
G4ThreeVector rotation(0.0,0.0,0.0);
G4ThreeVector scale(1.0,1.0,1.0);
const xercesc::DOMNamedNodeMap* const attributes
= physvolElement->getAttributes();
XMLSize_t attributeCount = attributes->getLength();
for (XMLSize_t attribute_index=0;
attribute_index<attributeCount; attribute_index++)
{
xercesc::DOMNode* attribute_node = attributes->item(attribute_index);
if (attribute_node->getNodeType() != xercesc::DOMNode::ATTRIBUTE_NODE)
{ continue; }
const xercesc::DOMAttr* const attribute
= dynamic_cast<xercesc::DOMAttr*>(attribute_node);
const G4String attName = Transcode(attribute->getName());
const G4String attValue = Transcode(attribute->getValue());
if (attName=="name") { name = attValue; }
}
for (xercesc::DOMNode* iter = physvolElement->getFirstChild();
iter != 0; iter = iter->getNextSibling())
{
if (iter->getNodeType() != xercesc::DOMNode::ELEMENT_NODE) { continue; }
const xercesc::DOMElement* const child
= dynamic_cast<xercesc::DOMElement*>(iter);
const G4String tag = Transcode(child->getTagName());
if (tag=="file")
{ logvol = FileRead(child); } else
if (tag=="volumeref")
{ logvol = GetVolume(GenerateName(RefRead(child))); } else
if (tag=="position")
{ VectorRead(child,position); } else
if (tag=="rotation")
{ VectorRead(child,rotation); } else
if (tag=="scale")
{ VectorRead(child,scale); } else
if (tag=="positionref")
{ position = GetPosition(GenerateName(RefRead(child))); } else
if (tag=="rotationref")
{ rotation = GetRotation(GenerateName(RefRead(child))); } else
if (tag=="scaleref")
{ scale = GetScale(GenerateName(RefRead(child))); }
else
{
G4String error_msg = "Unknown tag in physvol: " + tag;
G4Exception("G4GDMLReadStructure::PhysvolRead()", "ReadError",
FatalException, error_msg);
}
}
G4Transform3D transform(GetRotationMatrix(rotation).inverse(),position);
transform = transform*G4Scale3D(scale.x(),scale.y(),scale.z());
G4String pv_name = logvol->GetName() + "_refl";
G4PhysicalVolumesPair pair = G4ReflectionFactory::Instance()
->Place(transform,pv_name,logvol,pMotherLogical,false,0,false);
if (pair.first != 0) { GeneratePhysvolName(name,pair.first); }
if (pair.second != 0) { GeneratePhysvolName(name,pair.second); }
}
void G4GDMLReadStructure::
ReplicavolRead(const xercesc::DOMElement* const replicavolElement, G4int number)
{
G4LogicalVolume* logvol = 0;
for (xercesc::DOMNode* iter = replicavolElement->getFirstChild();
iter != 0; iter = iter->getNextSibling())
{
if (iter->getNodeType() != xercesc::DOMNode::ELEMENT_NODE) { continue; }
const xercesc::DOMElement* const child
= dynamic_cast<xercesc::DOMElement*>(iter);
const G4String tag = Transcode(child->getTagName());
if (tag=="volumeref")
{
logvol = GetVolume(GenerateName(RefRead(child)));
}
else if (tag=="replicate_along_axis")
{
ReplicaRead(child,logvol,number);
}
else
{
G4String error_msg = "Unknown tag in ReplicavolRead: " + tag;
G4Exception("G4GDMLReadStructure::ReplicavolRead()",
"ReadError", FatalException, error_msg);
}
}
}
void G4GDMLReadStructure::
ReplicaRead(const xercesc::DOMElement* const replicaElement,
G4LogicalVolume* logvol, G4int number)
{
G4double width = 0.0;
G4double offset = 0.0;
G4ThreeVector position(0.0,0.0,0.0);
G4ThreeVector rotation(0.0,0.0,0.0);
EAxis axis = kUndefined;
G4String name;
for (xercesc::DOMNode* iter = replicaElement->getFirstChild();
iter != 0; iter = iter->getNextSibling())
{
if (iter->getNodeType() != xercesc::DOMNode::ELEMENT_NODE) { continue; }
const xercesc::DOMElement* const child
= dynamic_cast<xercesc::DOMElement*>(iter);
const G4String tag = Transcode(child->getTagName());
if (tag=="position")
{ VectorRead(child,position); } else
if (tag=="rotation")
{ VectorRead(child,rotation); } else
if (tag=="positionref")
{ position = GetPosition(GenerateName(RefRead(child))); } else
if (tag=="rotationref")
{ rotation = GetRotation(GenerateName(RefRead(child))); } else
if (tag=="direction")
{ axis=AxisRead(child); } else
if (tag=="width")
{ width=QuantityRead(child); } else
if (tag=="offset")
{ offset=QuantityRead(child); }
else
{
G4String error_msg = "Unknown tag in ReplicaRead: " + tag;
G4Exception("G4GDMLReadStructure::ReplicaRead()", "ReadError",
FatalException, error_msg);
}
}
G4String pv_name = logvol->GetName() + "_refl";
G4PhysicalVolumesPair pair = G4ReflectionFactory::Instance()
->Replicate(pv_name,logvol,pMotherLogical,axis,number,width,offset);
if (pair.first != 0) { GeneratePhysvolName(name,pair.first); }
if (pair.second != 0) { GeneratePhysvolName(name,pair.second); }
}
EAxis G4GDMLReadStructure::
AxisRead(const xercesc::DOMElement* const axisElement)
{
EAxis axis = kUndefined;
const xercesc::DOMNamedNodeMap* const attributes
= axisElement->getAttributes();
XMLSize_t attributeCount = attributes->getLength();
for (XMLSize_t attribute_index=0;
attribute_index<attributeCount; attribute_index++)
{
xercesc::DOMNode* attribute_node = attributes->item(attribute_index);
if (attribute_node->getNodeType() != xercesc::DOMNode::ATTRIBUTE_NODE)
{ continue; }
const xercesc::DOMAttr* const attribute
= dynamic_cast<xercesc::DOMAttr*>(attribute_node);
const G4String attName = Transcode(attribute->getName());
const G4String attValue = Transcode(attribute->getValue());
if (attName=="x")
{ if( eval.Evaluate(attValue)==1.) {axis=kXAxis;} }
else if (attName=="y")
{ if( eval.Evaluate(attValue)==1.) {axis=kYAxis;} }
else if (attName=="z")
{ if( eval.Evaluate(attValue)==1.) {axis=kZAxis;} }
else if (attName=="rho")
{ if( eval.Evaluate(attValue)==1.) {axis=kRho;} }
else if (attName=="phi")
{ if( eval.Evaluate(attValue)==1.) {axis=kPhi;} }
}
return axis;
}
G4double G4GDMLReadStructure::
QuantityRead(const xercesc::DOMElement* const readElement)
{
G4double value = 0.0;
G4double unit = 0.0;
const xercesc::DOMNamedNodeMap* const attributes
= readElement->getAttributes();
XMLSize_t attributeCount = attributes->getLength();
for (XMLSize_t attribute_index=0;
attribute_index<attributeCount; attribute_index++)
{
xercesc::DOMNode* attribute_node = attributes->item(attribute_index);
if (attribute_node->getNodeType() != xercesc::DOMNode::ATTRIBUTE_NODE)
{ continue; }
const xercesc::DOMAttr* const attribute
= dynamic_cast<xercesc::DOMAttr*>(attribute_node);
const G4String attName = Transcode(attribute->getName());
const G4String attValue = Transcode(attribute->getValue());
if (attName=="unit") { unit = eval.Evaluate(attValue); } else
if (attName=="value"){ value= eval.Evaluate(attValue); }
}
return value*unit;
}
void G4GDMLReadStructure::
VolumeRead(const xercesc::DOMElement* const volumeElement)
{
G4VSolid* solidPtr = 0;
G4Material* materialPtr = 0;
G4GDMLAuxListType auxList;
XMLCh *name_attr = xercesc::XMLString::transcode("name");
const G4String name = Transcode(volumeElement->getAttribute(name_attr));
xercesc::XMLString::release(&name_attr);
for (xercesc::DOMNode* iter = volumeElement->getFirstChild();
iter != 0; iter = iter->getNextSibling())
{
if (iter->getNodeType() != xercesc::DOMNode::ELEMENT_NODE) { continue; }
const xercesc::DOMElement* const child
= dynamic_cast<xercesc::DOMElement*>(iter);
const G4String tag = Transcode(child->getTagName());
if (tag=="auxiliary")
{ auxList.push_back(AuxiliaryRead(child)); } else
if (tag=="materialref")
{ materialPtr = GetMaterial(GenerateName(RefRead(child),true)); } else
if (tag=="solidref")
{ solidPtr = GetSolid(GenerateName(RefRead(child))); }
}
pMotherLogical = new G4LogicalVolume(solidPtr,materialPtr,
GenerateName(name),0,0,0);
if (!auxList.empty()) { auxMap[pMotherLogical] = auxList; }
Volume_contentRead(volumeElement);
}
void G4GDMLReadStructure::
SkinsurfaceRead(const xercesc::DOMElement* const skinsurfaceElement)
{
G4String name;
G4LogicalVolume* logvol = 0;
G4SurfaceProperty* prop = 0;
const xercesc::DOMNamedNodeMap* const attributes
= skinsurfaceElement->getAttributes();
XMLSize_t attributeCount = attributes->getLength();
for (XMLSize_t attribute_index=0;
attribute_index<attributeCount; attribute_index++)
{
xercesc::DOMNode* attribute_node = attributes->item(attribute_index);
if (attribute_node->getNodeType() != xercesc::DOMNode::ATTRIBUTE_NODE)
{ continue; }
const xercesc::DOMAttr* const attribute
= dynamic_cast<xercesc::DOMAttr*>(attribute_node);
const G4String attName = Transcode(attribute->getName());
const G4String attValue = Transcode(attribute->getValue());
if (attName=="name")
{ name = GenerateName(attValue); } else
if (attName=="surfaceproperty")
{ prop = GetSurfaceProperty(GenerateName(attValue)); }
}
for (xercesc::DOMNode* iter = skinsurfaceElement->getFirstChild();
iter != 0; iter = iter->getNextSibling())
{
if (iter->getNodeType() != xercesc::DOMNode::ELEMENT_NODE) { continue; }
const xercesc::DOMElement* const child
= dynamic_cast<xercesc::DOMElement*>(iter);
const G4String tag = Transcode(child->getTagName());
if (tag=="volumeref")
{
logvol = GetVolume(GenerateName(RefRead(child)));
}
else
{
G4String error_msg = "Unknown tag in skinsurface: " + tag;
G4Exception("G4GDMLReadStructure::SkinsurfaceRead()", "ReadError",
FatalException, error_msg);
}
}
new G4LogicalSkinSurface(Strip(name),logvol,prop);
}
void G4GDMLReadStructure::
Volume_contentRead(const xercesc::DOMElement* const volumeElement)
{
for (xercesc::DOMNode* iter = volumeElement->getFirstChild();
iter != 0; iter = iter->getNextSibling())
{
if (iter->getNodeType() != xercesc::DOMNode::ELEMENT_NODE) { continue; }
const xercesc::DOMElement* const child
= dynamic_cast<xercesc::DOMElement*>(iter);
const G4String tag = Transcode(child->getTagName());
if ((tag=="auxiliary") || (tag=="materialref") || (tag=="solidref"))
{
// These are already processed in VolumeRead()
}
else if (tag=="paramvol")
{
ParamvolRead(child,pMotherLogical);
}
else if (tag=="physvol")
{
PhysvolRead(child);
}
else if (tag=="replicavol")
{
G4int number = 1;
const xercesc::DOMNamedNodeMap* const attributes
= child->getAttributes();
XMLSize_t attributeCount = attributes->getLength();
for (XMLSize_t attribute_index=0;
attribute_index<attributeCount; attribute_index++)
{
xercesc::DOMNode* attribute_node
= attributes->item(attribute_index);
if (attribute_node->getNodeType()!=xercesc::DOMNode::ATTRIBUTE_NODE)
{
continue;
}
const xercesc::DOMAttr* const attribute
= dynamic_cast<xercesc::DOMAttr*>(attribute_node);
const G4String attName = Transcode(attribute->getName());
const G4String attValue = Transcode(attribute->getValue());
if (attName=="number")
{
number = eval.EvaluateInteger(attValue);
}
}
ReplicavolRead(child,number);
}
else if (tag=="divisionvol")
{
DivisionvolRead(child);
}
else if (tag=="loop")
{
LoopRead(child,&G4GDMLRead::Volume_contentRead);
}
else
{
G4cout << "Treating unknown GDML tag in volume '" << tag
<< "' as GDML extension..." << G4endl;
}
}
}
void G4GDMLReadStructure::
StructureRead(const xercesc::DOMElement* const structureElement)
{
G4cout << "G4GDML: Reading structure..." << G4endl;
for (xercesc::DOMNode* iter = structureElement->getFirstChild();
iter != 0; iter = iter->getNextSibling())
{
if (iter->getNodeType() != xercesc::DOMNode::ELEMENT_NODE) { continue; }
const xercesc::DOMElement* const child
= dynamic_cast<xercesc::DOMElement*>(iter);
const G4String tag = Transcode(child->getTagName());
if (tag=="bordersurface") { BordersurfaceRead(child); } else
if (tag=="skinsurface") { SkinsurfaceRead(child); } else
if (tag=="volume") { VolumeRead(child); } else
if (tag=="loop") { LoopRead(child,&G4GDMLRead::StructureRead); }
else
{
G4String error_msg = "Unknown tag in structure: " + tag;
G4Exception("G4GDMLReadStructure::StructureRead()",
"ReadError", FatalException, error_msg);
}
}
}
G4VPhysicalVolume* G4GDMLReadStructure::
GetPhysvol(const G4String& ref) const
{
G4VPhysicalVolume* physvolPtr =
G4PhysicalVolumeStore::GetInstance()->GetVolume(ref,false);
if (!physvolPtr)
{
G4String error_msg = "Referenced physvol '" + ref + "' was not found!";
G4Exception("G4GDMLReadStructure::GetPhysvol()", "ReadError",
FatalException, error_msg);
}
return physvolPtr;
}
G4LogicalVolume* G4GDMLReadStructure::
GetVolume(const G4String& ref) const
{
G4LogicalVolume *volumePtr
= G4LogicalVolumeStore::GetInstance()->GetVolume(ref,false);
if (!volumePtr)
{
G4String error_msg = "Referenced volume '" + ref + "' was not found!";
G4Exception("G4GDMLReadStructure::GetVolume()", "ReadError",
FatalException, error_msg);
}
return volumePtr;
}
G4GDMLAuxListType G4GDMLReadStructure::
GetVolumeAuxiliaryInformation(const G4LogicalVolume* const logvol)
{
if (auxMap.find(logvol) != auxMap.end()) { return auxMap[logvol]; }
else { return G4GDMLAuxListType(); }
}
G4VPhysicalVolume* G4GDMLReadStructure::
GetWorldVolume(const G4String& setupName)
{
G4LogicalVolume* volume = GetVolume(Strip(GetSetup(setupName)));
volume->SetVisAttributes(G4VisAttributes::Invisible);
G4VPhysicalVolume* pvWorld =
new G4PVPlacement(0,G4ThreeVector(0,0,0),volume,setupName,0,0,0);
return pvWorld;
}