diff --git a/Inputs/EventGenerator/proton.source b/Inputs/EventGenerator/proton.source
index 5dedf9e6875e3165e3c7f3ed2cbf037a01cac812..16fb7f56d946b918b228709ff5da6a7b185c0750 100644
--- a/Inputs/EventGenerator/proton.source
+++ b/Inputs/EventGenerator/proton.source
@@ -4,10 +4,10 @@
% Energy are given in MeV , Position in mm %
%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
Isotropic
- EnergyLow= 0
- EnergyHigh= 200
+ EnergyLow= 80
+ EnergyHigh= 80
HalfOpenAngleMin= 0
- HalfOpenAngleMax= 10
+ HalfOpenAngleMax= 0
x0= 0
y0= 0
z0= 0
diff --git a/NPLib/scripts/Style_nptool.C b/NPLib/scripts/Style_nptool.C
index ccf35f6bee611d83bcb44edddcfcff4082856977..11d6c8b8b850a3a7ef0e1841552a63890bbfe9c2 100644
--- a/NPLib/scripts/Style_nptool.C
+++ b/NPLib/scripts/Style_nptool.C
@@ -10,30 +10,38 @@ void Style_nptool(){
style->SetTitlePS("nptool");
//General
- style->SetFrameFillColor(kWhite);
+ /*style->SetFrameFillColor(kWhite);
style->SetFrameBorderMode(0);
- style->SetFrameLineColor(kWhite);
- style->SetStatColor(kBlack);
+ style->SetFrameLineColor(kBlack);
+ style->SetStatColor(kWhite);
style->SetTitleFillColor(kWhite);
style->SetTitleColor(kBlack,"pad");
style->SetTitleBorderSize(0);
- style->SetTextColor(kBlack);
+ style->SetTextColor(kBlack);*/
+
+ style->SetFrameFillColor(kWhite);
+ style->SetFrameBorderMode(0);
+ style->SetFrameLineColor(kBlack);
+ style->SetStatColor(kWhite);
+ style->SetFillColor(kWhite);
+ style->SetTitleFillColor(kWhite);
+ style->SetPaperSize(20,24);
// Canvas
- style->SetCanvasPreferGL(true);
+ //style->SetCanvasPreferGL(true);
style->SetCanvasColor(kWhite);
style->SetCanvasDefH(800);
style->SetCanvasDefW(800);
style->SetCanvasBorderMode(0);
// Pad
- style->SetPadBottomMargin(0.10);
- style->SetPadLeftMargin(0.10);
- style->SetPadTopMargin(0.15);
- style->SetPadRightMargin(0.15);
+ style->SetPadBottomMargin(0.15);
+ style->SetPadLeftMargin(0.15);
+ style->SetPadTopMargin(0.05);
+ style->SetPadRightMargin(0.10);
style->SetPadBorderMode(0);
style->SetPadBorderSize(1);
- // style->SetPadColor(kWhite);
+ style->SetPadColor(kWhite);
style->SetPadTickX(1);
style->SetPadTickY(1);
@@ -43,22 +51,27 @@ void Style_nptool(){
style->SetOptFit(0);
// x axis
- style->SetAxisColor(kBlack,"X");
+ /*style->SetAxisColor(kBlack,"X");
style->SetLabelColor(kBlack,"X");
- style->SetTitleXSize(0.04);
+ style->SetTitleXSize(0.07);
style->SetTitleXOffset(1.0);
- style->SetLabelOffset(0.1,"X");
- style->SetLabelSize(0.04,"X");
- style->SetLabelOffset(0.004,"X");
-
+ style->SetLabelOffset(0.1,"X"); */
+ //style->SetLabelSize(0.04,"X");
+ //style->SetLabelOffset(0.006,"X");
+ style->SetTitleXSize(0.07);
+ style->SetTitleXOffset(1.0);
+ style->SetLabelOffset(0.1,"X");
+ style->SetLabelSize(0.04,"X");
+ style->SetLabelOffset(0.006,"X");
+
// y axis
- style->SetTitleYSize(0.04);
- style->SetTitleYOffset(1.1);
+ style->SetTitleYSize(0.07);
+ style->SetTitleYOffset(1.1);
style->SetLabelOffset(0.1,"Y");
style->SetLabelSize(0.04,"Y");
- style->SetLabelOffset(0.004,"Y");
- style->SetAxisColor(kBlack,"Y");
- style->SetLabelColor(kBlack,"Y");
+ style->SetLabelOffset(0.008,"Y");
+ //style->SetAxisColor(kBlack,"Y");
+ //style->SetLabelColor(kBlack,"Y");
// z axis
style->SetAxisColor(kBlack,"Z");
@@ -75,7 +88,7 @@ void Style_nptool(){
style->SetMarkerStyle(20);
style->SetMarkerColor(kOrange+7);
style->SetLineColor(kOrange+7);
- style->SetLineWidth(1);
+ style->SetLineWidth(2);
style->SetFuncColor(kOrange+7);
style->SetFuncWidth(2);
diff --git a/NPSimulation/Detectors/Microball/Microball.cc b/NPSimulation/Detectors/Microball/Microball.cc
index 16deb596c80f325e3b57f9bd94c5e9a6ffe68c6c..3c6a75f5e1d2db4fcf6c1223823874dda4af0f68 100644
--- a/NPSimulation/Detectors/Microball/Microball.cc
+++ b/NPSimulation/Detectors/Microball/Microball.cc
@@ -66,80 +66,80 @@ using namespace CLHEP;
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
namespace Microball_NS{
- // Energy and time Resolution
- const double EnergyThreshold = 0.1*MeV;
- const double ResoTime = 8.49*ns ;
- const double ResoEnergy = 0.102*MeV ;
- const double Radius = 50*mm ;
- const double Width = 100*mm ;
- const double Thickness = 300*mm ;
- const string Scintillator = "BC400";
+ // Energy and time Resolution
+ const double EnergyThreshold = 0.3*MeV; //0.1*MeV ;
+ const double ResoTime = 8.49*ns ;
+ const double ResoEnergy = 0*MeV; //0.102*MeV ;
+ const double Radius = 50*mm ;
+ const double Width = 100*mm ;
+ const double Thickness = 300*mm ;
+ const string Scintillator = "BC400";
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
// Microball Specific Method
Microball::Microball(){
- m_Event = new TMicroballData() ;
- m_MicroballScorer = 0;
- m_SquareDetector = 0;
- m_CylindricalDetector = 0;
-
-
- // RGB Color + Transparency
- m_VisSquare = new G4VisAttributes(G4Colour(0, 1, 0, 0.5));
- m_VisCylinder = new G4VisAttributes(G4Colour(0, 0, 1, 0.5));
-
+ m_Event = new TMicroballData() ;
+ m_MicroballScorer = 0;
+ m_SquareDetector = 0;
+ m_CylindricalDetector = 0;
+
+
+ // RGB Color + Transparency
+ m_VisSquare = new G4VisAttributes(G4Colour(0, 1, 0, 0.5));
+ m_VisCylinder = new G4VisAttributes(G4Colour(0, 0, 1, 0.5));
+
}
Microball::~Microball(){
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
-void Microball::AddMicroball(bool bR1, bool bR2, bool bR3,
- bool bR4, bool bR5, bool bR6,
- bool bR7, bool bR8, bool bR9,
- vector<int> copyNumArray, bool bFlip, bool bChamber){
- m_Ring1 = bR1;
- m_Ring2 = bR2;
- m_Ring3 = bR3;
- m_Ring4 = bR4;
- m_Ring5 = bR5;
- m_Ring6 = bR6;
- m_Ring7 = bR7;
- m_Ring8 = bR8;
- m_Ring9 = bR9;
- m_Array = copyNumArray;
- m_Flip = bFlip;
- m_Chamber = bChamber;
+void Microball::AddMicroball(bool bR1, bool bR2, bool bR3,
+ bool bR4, bool bR5, bool bR6,
+ bool bR7, bool bR8, bool bR9,
+ vector<int> copyNumArray, bool bFlip, bool bChamber){
+ m_Ring1 = bR1;
+ m_Ring2 = bR2;
+ m_Ring3 = bR3;
+ m_Ring4 = bR4;
+ m_Ring5 = bR5;
+ m_Ring6 = bR6;
+ m_Ring7 = bR7;
+ m_Ring8 = bR8;
+ m_Ring9 = bR9;
+ m_Array = copyNumArray;
+ m_Flip = bFlip;
+ m_Chamber = bChamber;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4LogicalVolume* Microball::BuildSquareDetector(){
- if(!m_SquareDetector){
- G4Box* box = new G4Box("Microball_Box",Microball_NS::Width*0.5,
- Microball_NS::Width*0.5,Microball_NS::Thickness*0.5);
-
- G4Material* ScintMaterial = MaterialManager::getInstance()->GetMaterialFromLibrary(Microball_NS::Scintillator);
- m_SquareDetector = new G4LogicalVolume(box,ScintMaterial,"logic_Microball_Box",0,0,0);
- m_SquareDetector->SetVisAttributes(m_VisSquare);
- m_SquareDetector->SetSensitiveDetector(m_MicroballScorer);
- }
- return m_SquareDetector;
+ if(!m_SquareDetector){
+ G4Box* box = new G4Box("Microball_Box",Microball_NS::Width*0.5,
+ Microball_NS::Width*0.5,Microball_NS::Thickness*0.5);
+
+ G4Material* ScintMaterial = MaterialManager::getInstance()->GetMaterialFromLibrary(Microball_NS::Scintillator);
+ m_SquareDetector = new G4LogicalVolume(box,ScintMaterial,"logic_Microball_Box",0,0,0);
+ m_SquareDetector->SetVisAttributes(m_VisSquare);
+ m_SquareDetector->SetSensitiveDetector(m_MicroballScorer);
+ }
+ return m_SquareDetector;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
G4LogicalVolume* Microball::BuildCylindricalDetector(){
- if(!m_CylindricalDetector){
- G4Tubs* tub = new G4Tubs("Microball_Cyl",0,Microball_NS::Radius,Microball_NS::Thickness*0.5,0,360*deg);
-
- G4Material* ScintMaterial = MaterialManager::getInstance()->GetMaterialFromLibrary(Microball_NS::Scintillator);
- m_CylindricalDetector = new G4LogicalVolume(tub,ScintMaterial,"logic_Microball_tub",0,0,0);
- m_CylindricalDetector->SetVisAttributes(m_VisSquare);
- m_CylindricalDetector->SetSensitiveDetector(m_MicroballScorer);
-
- }
- return m_CylindricalDetector;
+ if(!m_CylindricalDetector){
+ G4Tubs* tub = new G4Tubs("Microball_Cyl",0,Microball_NS::Radius,Microball_NS::Thickness*0.5,0,360*deg);
+
+ G4Material* ScintMaterial = MaterialManager::getInstance()->GetMaterialFromLibrary(Microball_NS::Scintillator);
+ m_CylindricalDetector = new G4LogicalVolume(tub,ScintMaterial,"logic_Microball_tub",0,0,0);
+ m_CylindricalDetector->SetVisAttributes(m_VisSquare);
+ m_CylindricalDetector->SetSensitiveDetector(m_MicroballScorer);
+
+ }
+ return m_CylindricalDetector;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
@@ -150,3046 +150,3067 @@ G4LogicalVolume* Microball::BuildCylindricalDetector(){
// Read stream at Configfile to pick-up parameters of detector (Position,...)
// Called in DetecorConstruction::ReadDetextorConfiguration Method
void Microball::ReadConfiguration(string Path){
- ifstream ConfigFile ;
- ConfigFile.open(Path.c_str()) ;
- string LineBuffer ;
- string DataBuffer ;
-
-
- bool bR1 = false;
- bool bR2 = false;
- bool bR3 = false;
- bool bR4 = false;
- bool bR5 = false;
- bool bR6 = false;
- bool bR7 = false;
- bool bR8 = false;
- bool bR9 = false;
- vector<int> copyNumArray;
- bool bFlip = false;
- bool bChamber = false;
-
- bool ReadingStatus = false ;
-
- bool check_Ring1 = false;
- bool check_Ring2 = false;
- bool check_Ring3 = false;
- bool check_Ring4 = false;
- bool check_Ring5 = false;
- bool check_Ring6 = false;
- bool check_Ring7 = false;
- bool check_Ring8 = false;
- bool check_Ring9 = false;
- bool check_Flip = false;
- bool check_Chamber = false;
-
- while (!ConfigFile.eof()) {
- getline(ConfigFile, LineBuffer);
-
- // If line is a Start Up Microball bloc, Reading toggle to true
- string name = "Microball";
-
- if (LineBuffer.compare(0, name.length(), name) == 0) {
- G4cout << "///" << G4endl ;
- G4cout << "Microball found: " << G4endl ;
- ReadingStatus = true ;
- }
-
- // Else don't toggle to Reading Block Status
- else ReadingStatus = false ;
-
- // Reading Block
- while(ReadingStatus){
- // Pickup Next Word
- ConfigFile >> DataBuffer ;
-
- // Comment Line
- if (DataBuffer.compare(0, 1, "%") == 0) {
- ConfigFile.ignore ( std::numeric_limits<std::streamsize>::max(), '\n' );
- }
-
- // Finding another telescope (safety), toggle out
- else if (DataBuffer.compare(0, name.length(),name) == 0) {
- G4cout << "WARNING: Another Detector is find before standard sequence of Token, Error may occured in Telecope definition" << G4endl ;
- ReadingStatus = false ;
- }
-
- //Angle method
- else if (DataBuffer.compare(0, 6, "RING1=") == 0) {
- check_Ring1 = true;
- ConfigFile >> DataBuffer ;
- bR1 = atoi(DataBuffer.c_str()) ;
- G4cout << "Ring1: " << bR1 << G4endl;
- }
-
- else if (DataBuffer.compare(0, 6, "RING2=") == 0) {
- check_Ring2 = true;
- ConfigFile >> DataBuffer ;
- bR2 = atoi(DataBuffer.c_str()) ;
- G4cout << "Ring2: " << bR2 << G4endl;
- }
-
- else if (DataBuffer.compare(0, 6, "RING3=") == 0) {
- check_Ring3 = true;
- ConfigFile >> DataBuffer ;
- bR3 = atoi(DataBuffer.c_str()) ;
- G4cout << "Ring3: " << bR3 << G4endl;
- }
-
- else if (DataBuffer.compare(0, 6, "RING4=") == 0) {
- check_Ring4 = true;
- ConfigFile >> DataBuffer ;
- bR4 = atoi(DataBuffer.c_str()) ;
- G4cout << "Ring4: " << bR4 << G4endl;
- }
-
- else if (DataBuffer.compare(0, 6, "RING5=") == 0) {
- check_Ring5 = true;
- ConfigFile >> DataBuffer ;
- bR5 = atoi(DataBuffer.c_str()) ;
- G4cout << "Ring5: " << bR5 << G4endl;
- }
-
- else if (DataBuffer.compare(0, 6, "RING6=") == 0) {
- check_Ring6 = true;
- ConfigFile >> DataBuffer ;
- bR6 = atoi(DataBuffer.c_str()) ;
- G4cout << "Ring6: " << bR6 << G4endl;
- }
-
- else if (DataBuffer.compare(0, 6, "RING7=") == 0) {
- check_Ring7 = true;
- ConfigFile >> DataBuffer ;
- bR7 = atoi(DataBuffer.c_str()) ;
- G4cout << "Ring7: " << bR7 << G4endl;
- }
-
- else if (DataBuffer.compare(0, 6, "RING8=") == 0) {
- check_Ring8 = true;
- ConfigFile >> DataBuffer ;
- bR8 = atoi(DataBuffer.c_str()) ;
- G4cout << "Ring8: " << bR8 << G4endl;
- }
-
-
- else if (DataBuffer.compare(0, 6, "RING9=") == 0) {
- check_Ring9 = true;
- ConfigFile >> DataBuffer ;
- bR9 = atoi(DataBuffer.c_str()) ;
- G4cout << "Ring9: " << bR9 << G4endl;
- }
-
- else if (DataBuffer.compare(0, 15, "DISABLE_CRYSTAL") == 0) {
- ConfigFile >> DataBuffer ;
- int item = atoi(DataBuffer.c_str());
- copyNumArray.push_back(item) ;
- G4cout << "Disabled crystal: " << item << G4endl;
- }
-
- else if (DataBuffer.compare(0, 14, "DETECTOR_FLIP=") == 0) {
- check_Flip = true;
- ConfigFile >> DataBuffer ;
- bFlip = atoi(DataBuffer.c_str()) ;
- G4cout << "Flip Detector: " << bFlip << G4endl;
- }
-
- else if (DataBuffer.compare(0, 16, "INCLUDE_CHAMBER=") == 0) {
- check_Chamber = true;
- ConfigFile >> DataBuffer ;
- bChamber = atoi(DataBuffer.c_str()) ;
- G4cout << "Include Chamber: " << bChamber << G4endl;
- }
-
-
- //General
-
-
- ///////////////////////////////////////////////////
- // If no Detector Token and no comment, toggle out
- else{
- ReadingStatus = false;
- G4cout << "Wrong Token Sequence: Getting out " << DataBuffer << G4endl ;
- }
- if(check_Ring1 && check_Ring2 && check_Ring3 &&
- check_Ring4 && check_Ring5 && check_Ring6 &&
- check_Ring7 && check_Ring8 && check_Ring9 &&
- check_Flip && check_Chamber){
- AddMicroball(bR1, bR2, bR3,
- bR4, bR5, bR6,
- bR7, bR8, bR9,
- copyNumArray, bFlip, bChamber);
-
- // Reinitialisation of Check Boolean
- check_Ring1 = false ;
- check_Ring2 = false ;
- check_Ring3 = false ;
- check_Ring4 = false ;
- check_Ring5 = false ;
- check_Ring6 = false ;
- check_Ring7 = false ;
- check_Ring8 = false ;
- check_Ring9 = false ;
- check_Flip = false ;
- check_Chamber = false;
-
- ReadingStatus = false ;
- G4cout << "///"<< G4endl ;
- }
- }
+ ifstream ConfigFile ;
+ ConfigFile.open(Path.c_str()) ;
+ string LineBuffer ;
+ string DataBuffer ;
+
+
+bool bR1 = false;
+bool bR2 = false;
+bool bR3 = false;
+bool bR4 = false;
+bool bR5 = false;
+bool bR6 = false;
+bool bR7 = false;
+bool bR8 = false;
+bool bR9 = false;
+vector<int> copyNumArray;
+bool bFlip = false;
+bool bChamber = false;
+
+ bool ReadingStatus = false ;
+
+bool check_Ring1 = false;
+bool check_Ring2 = false;
+bool check_Ring3 = false;
+bool check_Ring4 = false;
+bool check_Ring5 = false;
+bool check_Ring6 = false;
+bool check_Ring7 = false;
+bool check_Ring8 = false;
+bool check_Ring9 = false;
+bool check_Flip = false;
+bool check_Chamber = false;
+
+ while (!ConfigFile.eof()) {
+ getline(ConfigFile, LineBuffer);
+
+ // If line is a Start Up Microball bloc, Reading toggle to true
+ string name = "Microball";
+
+ if (LineBuffer.compare(0, name.length(), name) == 0) {
+ G4cout << "///" << G4endl ;
+ G4cout << "Microball found: " << G4endl ;
+ ReadingStatus = true ;
+ }
+
+ // Else don't toggle to Reading Block Status
+ else ReadingStatus = false ;
+
+ // Reading Block
+ while(ReadingStatus){
+ // Pickup Next Word
+ ConfigFile >> DataBuffer ;
+
+ // Comment Line
+ if (DataBuffer.compare(0, 1, "%") == 0) {
+ ConfigFile.ignore ( std::numeric_limits<std::streamsize>::max(), '\n' );
+ }
+
+ // Finding another telescope (safety), toggle out
+ else if (DataBuffer.compare(0, name.length(),name) == 0) {
+ G4cout << "WARNING: Another Detector is find before standard sequence of Token, Error may occured in Telecope definition" << G4endl ;
+ ReadingStatus = false ;
+ }
+
+ //Angle method
+ else if (DataBuffer.compare(0, 6, "RING1=") == 0) {
+ check_Ring1 = true;
+ ConfigFile >> DataBuffer ;
+ bR1 = atoi(DataBuffer.c_str()) ;
+ G4cout << "Ring1: " << bR1 << G4endl;
+ }
+
+ else if (DataBuffer.compare(0, 6, "RING2=") == 0) {
+ check_Ring2 = true;
+ ConfigFile >> DataBuffer ;
+ bR2 = atoi(DataBuffer.c_str()) ;
+ G4cout << "Ring2: " << bR2 << G4endl;
+ }
+
+ else if (DataBuffer.compare(0, 6, "RING3=") == 0) {
+ check_Ring3 = true;
+ ConfigFile >> DataBuffer ;
+ bR3 = atoi(DataBuffer.c_str()) ;
+ G4cout << "Ring3: " << bR3 << G4endl;
+ }
+
+ else if (DataBuffer.compare(0, 6, "RING4=") == 0) {
+ check_Ring4 = true;
+ ConfigFile >> DataBuffer ;
+ bR4 = atoi(DataBuffer.c_str()) ;
+ G4cout << "Ring4: " << bR4 << G4endl;
+ }
+
+ else if (DataBuffer.compare(0, 6, "RING5=") == 0) {
+ check_Ring5 = true;
+ ConfigFile >> DataBuffer ;
+ bR5 = atoi(DataBuffer.c_str()) ;
+ G4cout << "Ring5: " << bR5 << G4endl;
+ }
+
+ else if (DataBuffer.compare(0, 6, "RING6=") == 0) {
+ check_Ring6 = true;
+ ConfigFile >> DataBuffer ;
+ bR6 = atoi(DataBuffer.c_str()) ;
+ G4cout << "Ring6: " << bR6 << G4endl;
+ }
+
+ else if (DataBuffer.compare(0, 6, "RING7=") == 0) {
+ check_Ring7 = true;
+ ConfigFile >> DataBuffer ;
+ bR7 = atoi(DataBuffer.c_str()) ;
+ G4cout << "Ring7: " << bR7 << G4endl;
+ }
+
+ else if (DataBuffer.compare(0, 6, "RING8=") == 0) {
+ check_Ring8 = true;
+ ConfigFile >> DataBuffer ;
+ bR8 = atoi(DataBuffer.c_str()) ;
+ G4cout << "Ring8: " << bR8 << G4endl;
+ }
+
+
+ else if (DataBuffer.compare(0, 6, "RING9=") == 0) {
+ check_Ring9 = true;
+ ConfigFile >> DataBuffer ;
+ bR9 = atoi(DataBuffer.c_str()) ;
+ G4cout << "Ring9: " << bR9 << G4endl;
+ }
+
+ else if (DataBuffer.compare(0, 15, "DISABLE_CRYSTAL") == 0) {
+ ConfigFile >> DataBuffer ;
+ int item = atoi(DataBuffer.c_str());
+ copyNumArray.push_back(item) ;
+ G4cout << "Disabled crystal: " << item << G4endl;
+ }
+
+ else if (DataBuffer.compare(0, 14, "DETECTOR_FLIP=") == 0) {
+ check_Flip = true;
+ ConfigFile >> DataBuffer ;
+ bFlip = atoi(DataBuffer.c_str()) ;
+ G4cout << "Flip Detector: " << bFlip << G4endl;
+ }
+
+ else if (DataBuffer.compare(0, 16, "INCLUDE_CHAMBER=") == 0) {
+ check_Chamber = true;
+ ConfigFile >> DataBuffer ;
+ bChamber = atoi(DataBuffer.c_str()) ;
+ G4cout << "Include Chamber: " << bChamber << G4endl;
+ }
+
+
+ //General
+
+
+ ///////////////////////////////////////////////////
+ // If no Detector Token and no comment, toggle out
+ else{
+ ReadingStatus = false;
+ G4cout << "Wrong Token Sequence: Getting out " << DataBuffer << G4endl ;
+ }
+ if(check_Ring1 && check_Ring2 && check_Ring3 &&
+ check_Ring4 && check_Ring5 && check_Ring6 &&
+ check_Ring7 && check_Ring8 && check_Ring9 &&
+ check_Flip && check_Chamber){
+ AddMicroball(bR1, bR2, bR3,
+ bR4, bR5, bR6,
+ bR7, bR8, bR9,
+ copyNumArray, bFlip, bChamber);
+
+ // Reinitialisation of Check Boolean
+ check_Ring1 = false ;
+ check_Ring2 = false ;
+ check_Ring3 = false ;
+ check_Ring4 = false ;
+ check_Ring5 = false ;
+ check_Ring6 = false ;
+ check_Ring7 = false ;
+ check_Ring8 = false ;
+ check_Ring9 = false ;
+ check_Flip = false ;
+ check_Chamber = false;
+
+ ReadingStatus = false ;
+ G4cout << "///"<< G4endl ;
+ }
}
+ }
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
// Construct detector and inialise sensitive part.
// Called After DetecorConstruction::AddDetector Method
void Microball::ConstructDetector(G4LogicalVolume* world){
- //the below for-loop is commented out, and to be replaced with our detector geometry.
-
- G4bool checkOverlaps = false;
- G4double delrinBool = 1;
- G4double crystalBool = 1;
- G4double lgBool = 1;
-
- G4NistManager* nist = G4NistManager::Instance();
-
- G4Material* Al = nist->FindOrBuildMaterial("G4_Al");
- G4VisAttributes* chamberVisAtt = new G4VisAttributes(G4Colour(.7,.7,.7, .1));
- G4Material* CsI = nist->FindOrBuildMaterial("G4_CESIUM_IODIDE");
- G4VisAttributes* crystalVisAtt = new G4VisAttributes(G4Colour(0.,1.,0., .5));
- G4Material* glass = nist->FindOrBuildMaterial("G4_Pyrex_Glass");
- G4VisAttributes* lightGuideVisAtt = new G4VisAttributes(G4Colour(0.,0.,1.));
- G4Material* delrin = nist->FindOrBuildMaterial("G4_POLYOXYMETHYLENE");
- G4VisAttributes* delrinVisAtt = new G4VisAttributes(G4Colour(1.,0.,0.));
-
- if(m_Chamber){
- //----------------------------------------------------
- //the specifications for the dimensions of the chamber
- //----------------------------------------------------
-
- G4double chamberThickness = 7.9375*mm;
- G4double beamlineThickness = 10*mm;
-
- //the empty space in the chamber
- G4double subchamber_rmin = 0*mm;
- G4double subchamber_rmax = 673.1*mm;
- G4double subchamber_hz = (406.4*mm +251.46*mm)/2; //673.1*mm/2;
- G4double subchamber_phimin = 0*deg;
- G4double subchamber_phimax = 360*deg;
- G4RotationMatrix subchamber_rotm1 = G4RotationMatrix();
- G4ThreeVector subchamber_pos1 = G4ThreeVector(0,0,0);
- G4Transform3D subchamber_trans1 = G4Transform3D(subchamber_rotm1, subchamber_pos1);
-
- //the walls of the chamber
- G4double chamber_rmin = 0*mm;
- G4double chamber_rmax = subchamber_rmax +chamberThickness;
- G4double chamber_hz = subchamber_hz -0.1*mm; //fudge factor to make sure the top doesn't show up in the visualizer
- G4double chamber_phimin = 0*deg;
- G4double chamber_phimax = 360*deg;
- G4RotationMatrix chamber_rotm = G4RotationMatrix();
- chamber_rotm.rotateX(90*deg);
- G4ThreeVector chamber_pos = G4ThreeVector(0,-(chamber_hz -406.4*mm +76.2*mm),0);
- G4Transform3D chamber_trans = G4Transform3D(chamber_rotm, chamber_pos);
-
- //the top and bottom of the chamber
- G4double chambertop_height = 274.32*mm;
- G4double chambertop_semix = chamber_rmax;
- G4double chambertop_semiy = chamber_rmax;
- G4double chambertop_semiz = chambertop_height;
- G4double chambertop_bottomcut = 0;
- G4double chambertop_topcut = chambertop_semiz;
- G4RotationMatrix chambertop_rotm = G4RotationMatrix();
- chambertop_rotm.rotateX(-90*deg);
- G4ThreeVector chambertop_pos = G4ThreeVector(0,chamber_pos.getY() +chamber_hz,0);
- G4Transform3D chambertop_trans = G4Transform3D(chambertop_rotm, chambertop_pos);
- G4RotationMatrix chamberbottom_rotm = G4RotationMatrix();
- chamberbottom_rotm.rotateX(90*deg);
- G4ThreeVector chamberbottom_pos = G4ThreeVector(0,chamber_pos.getY() -chamber_hz,0);
- G4Transform3D chamberbottom_trans = G4Transform3D(chamberbottom_rotm, chamberbottom_pos);
-
- //the empty space in the top and bottom of the chamber
- G4double subtop_semix = chambertop_semix -chamberThickness;
- G4double subtop_semiy = chambertop_semiy -chamberThickness;
- G4double subtop_semiz = chambertop_semiz -chamberThickness;
- G4double subtop_bottomcut = 0 -0.1*mm; //fudge factor to make sure the bottom doesn't show up in the visualizer
- G4double subtop_topcut = subtop_semiz;
- G4RotationMatrix subtop_rotm = G4RotationMatrix();
- G4ThreeVector subtop_pos = G4ThreeVector(0,0,0);
- G4Transform3D subtop_trans = G4Transform3D(subtop_rotm, subtop_pos);
-
- //the hole for the beamline
- G4double subhole_rmin = 0*mm;
- G4double subhole_rmax = 152.4*mm/2;
- G4double subhole_hz = 10*(chamber_rmax -subchamber_rmax);
- G4double subhole_phimin = 0*deg;
- G4double subhole_phimax = 360*deg;
- G4RotationMatrix subhole_rotm = G4RotationMatrix();
- subhole_rotm.rotateX(90*deg);
- G4ThreeVector subhole_pos = G4ThreeVector(0,-(chamber_rmax +subchamber_rmax)/2,chamber_pos.getY());
- G4Transform3D subhole_trans = G4Transform3D(subhole_rotm, subhole_pos);
-
- //the beamline
- G4double beamline_rmin = subhole_rmax -beamlineThickness;
- G4double beamline_rmax = subhole_rmax;
- G4double beamline_hz = 500*mm; //the real value is 8760.46*mm; but this makes visualization difficult.
- G4double beamline_phimin = 0*deg;
- G4double beamline_phimax = 360*deg;
- G4RotationMatrix beamline_rotm = G4RotationMatrix();
- G4ThreeVector beamline_pos = G4ThreeVector(0,0,-(subchamber_rmax +beamline_hz -subhole_hz));
- G4Transform3D beamline_trans = G4Transform3D(beamline_rotm, beamline_pos);
- G4RotationMatrix subchamber_rotm2 = G4RotationMatrix();
- subchamber_rotm2.rotateX(90*deg);
- G4ThreeVector subchamber_pos2 = G4ThreeVector(0,0,-beamline_pos.getZ());
- G4Transform3D subchamber_trans2 = G4Transform3D(subchamber_rotm2, subchamber_pos2);
-
- //----------------------------------------------------
- //constructing the chamber
- //----------------------------------------------------
- //the walls of the chamber
- G4Tubs* solidSubchamber =
- new G4Tubs("Subchamber", //its name
- subchamber_rmin, subchamber_rmax,
- subchamber_hz,
- subchamber_phimin, subchamber_phimax); //its size
-
- G4Tubs* solidSubhole =
- new G4Tubs("Subhole", //its name
- subhole_rmin, subhole_rmax,
- subhole_hz,
- subhole_phimin, subhole_phimax); //its size
-
- G4Tubs* solidStartchamber =
- new G4Tubs("Startchamber", //its name
- chamber_rmin, chamber_rmax,
- chamber_hz,
- chamber_phimin, chamber_phimax); //its size
-
- G4SubtractionSolid* solidMidchamber =
- new G4SubtractionSolid("Midchamber",
- solidStartchamber,
- solidSubchamber,
- subchamber_trans1);
-
- G4SubtractionSolid* solidChamber =
- new G4SubtractionSolid("Chamber",
- solidMidchamber,
- solidSubhole,
- subhole_trans);
-
- G4LogicalVolume* logicChamber =
- new G4LogicalVolume(solidChamber, //its solid
- Al, //its material
- "Chamber"); //its name
- logicChamber->SetVisAttributes(chamberVisAtt);
-
- new G4PVPlacement(chamber_trans, //rotation, position
- logicChamber, //its logical volume
- "Chamber", //its name
- world, //its mother volume
- false, //no boolean operation
- 1, //copy number
- checkOverlaps); //overlaps checking
-
- //the top and bottom of the chamber
- G4Ellipsoid* solidStartchambertop =
- new G4Ellipsoid("Startchambertop", //its name
- chambertop_semix, chambertop_semiy, chambertop_semiz,
- chambertop_bottomcut, chambertop_topcut); //its size
-
- G4Ellipsoid* solidSubtop =
- new G4Ellipsoid("Subtop", //its name
- subtop_semix, subtop_semiy, subtop_semiz,
- subtop_bottomcut, subtop_topcut); //its size
-
- G4SubtractionSolid* solidChambertop =
- new G4SubtractionSolid("Chambertop",
- solidStartchambertop,
- solidSubtop,
- subtop_trans);
-
- G4LogicalVolume* logicChambertop =
- new G4LogicalVolume(solidChambertop, //its solid
- Al, //its material
- "Chambertop"); //its name
- logicChambertop->SetVisAttributes(chamberVisAtt);
-
- new G4PVPlacement(chambertop_trans, //rotation, position
- logicChambertop, //its logical volume
- "Chambertop", //its name
- world, //its mother volume
- false, //no boolean operation
- 1, //copy number
- checkOverlaps); //overlaps checking
- new G4PVPlacement(chamberbottom_trans, //rotation, position
- logicChambertop, //its logical volume
- "Chamberbottom", //its name
- world, //its mother volume
- false, //no boolean operation
- 1, //copy number
- checkOverlaps); //overlaps checking
-
- //the beamline
- G4Tubs* solidStartbeamline =
- new G4Tubs("Startbeamline", //its name
- beamline_rmin, beamline_rmax,
- beamline_hz,
- beamline_phimin, beamline_phimax); //its size
-
- G4SubtractionSolid* solidBeamline =
- new G4SubtractionSolid("Beamline",
- solidStartbeamline,
- solidSubchamber,
- subchamber_trans2);
-
- G4LogicalVolume* logicBeamline =
- new G4LogicalVolume(solidBeamline, //its solid
- Al, //its material
- "Beamline"); //its name
- logicBeamline->SetVisAttributes(chamberVisAtt);
-
- new G4PVPlacement(beamline_trans, //rotation, position
- logicBeamline, //its logical volume
- "Beamline", //its name
- world, //its mother volume
- false, //no boolean operation
- 1, //copy number
- checkOverlaps); //overlaps checking
-
-
- }
-
-
- if(m_Ring1){
- // Ring 1 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ lg pseudofixed
- G4int detNum1 = 6;
- G4double distanceFromTargetBack1 = 110.*mm;
- G4double theta1 = 9.0*deg;
- G4double halfTheta1 = 5.0*deg;
- G4double lgThickness1 = 8.0*mm;
- G4double detThickness1 = 9.2*mm;
- G4double distanceFromTarget1 = distanceFromTargetBack1 - detThickness1;
-
- //G4double distance1 = distanceFromTarget1*sin(theta1); //this gives the distance from the beam axis.
-
- //
- // Delrin Ring
- //
- G4double delrinA1 = 5*mm;
- G4double delrinB1 = 10*mm;
- G4double fdelrinHalfAngle1 = atan(delrinB1/2/(distanceFromTarget1+detThickness1+lgThickness1));
- G4double firs1 = pow(pow(distanceFromTarget1+detThickness1+lgThickness1,2)+pow(delrinB1/2,2),0.5)*sin(theta1-fdelrinHalfAngle1);
- G4double firb1 = pow(pow(distanceFromTarget1+detThickness1+lgThickness1,2)+pow(delrinB1/2,2),0.5)*sin(theta1+fdelrinHalfAngle1);
- G4double bdelrinHalfAngle1 = atan(delrinB1/2/(distanceFromTarget1+detThickness1+lgThickness1+delrinA1));
- G4double birs1 = pow(pow(distanceFromTarget1+detThickness1+lgThickness1+delrinA1,2)+pow(delrinB1/2,2),0.5)*sin(theta1-bdelrinHalfAngle1);
- G4double birb1 = pow(pow(distanceFromTarget1+detThickness1+lgThickness1+delrinA1,2)+pow(delrinB1/2,2),0.5)*sin(theta1+bdelrinHalfAngle1);
-
- G4double delrin_dz1 = delrinB1/2;
- G4double delrin_theta1 = 0;
- G4double delrin_phi1 = 0;
- G4double delrin_dyab1 = delrinA1/2;
- G4double delrin_dxa1 = firs1*tan(180*deg/detNum1);
- G4double delrin_dxb1 = birs1*tan(180*deg/detNum1);
- G4double delrin_dycd1 = delrinA1/2;
- G4double delrin_dxc1 = firb1*tan(180*deg/detNum1);
- G4double delrin_dxd1 = birb1*tan(180*deg/detNum1);
- G4double delrin_alpab1 = 0;
- G4double delrin_alpcd1 = delrin_alpab1;
-
-
- G4ThreeVector delrin_pos1 = G4ThreeVector(0,0,distanceFromTarget1*cos(theta1));
-
- G4Trap* solidDelrin1 =
- new G4Trap("Delrin1", //its name
- delrin_dz1,
- delrin_theta1, delrin_phi1,
- delrin_dyab1,
- delrin_dxa1, delrin_dxb1,
- delrin_alpab1,
- delrin_dycd1,
- delrin_dxc1, delrin_dxd1,
- delrin_alpcd1); //its size
-
- G4LogicalVolume* logicDelrin1 =
- new G4LogicalVolume(solidDelrin1, //its solid
- delrin, //its material
- "Delrin1"); //its name
- logicDelrin1->SetVisAttributes(delrinVisAtt);
-
- //
- // CsI Detector
- //
- G4double coneheight1 = 2*distanceFromTarget1;
- G4double flatheight1 = coneheight1-0.01*mm;
- G4double coneangle1 = theta1;
- G4double crystal_rmina1 = (coneheight1-flatheight1)*tan(coneangle1-halfTheta1);
- G4double crystal_rmaxa1 = (coneheight1-flatheight1)*tan(coneangle1+halfTheta1);
- G4double crystal_rminb1 = coneheight1*tan(coneangle1-halfTheta1);
- G4double crystal_rmaxb1 = coneheight1*tan(coneangle1+halfTheta1);
- G4double crystal_hz1 = 0.5*flatheight1;//(crystal_rmaxb1-crystal_rmaxa1)/crystal_rmaxb1*coneheight1;
- G4double crystal_phimin1 = 0.*deg, crystal_phimax1 = 360.*deg/detNum1;
- G4RotationMatrix tip_rotm1 = G4RotationMatrix();
- G4ThreeVector tip_pos1 = G4ThreeVector(0,0,0.5*flatheight1+(coneheight1-flatheight1));
- G4Transform3D tip_trans1 = G4Transform3D(tip_rotm1, tip_pos1);
- G4ThreeVector z1 = G4ThreeVector(0,0,1);
- G4ThreeVector d01 = G4ThreeVector(distanceFromTarget1*sin(coneangle1)*cos(0.5*360*deg/detNum1),
- distanceFromTarget1*sin(coneangle1)*sin(0.5*360*deg/detNum1),
- distanceFromTarget1*cos(coneangle1));
- G4ThreeVector unitAxis1 = z1.cross(d01);
- unitAxis1 = unitAxis1/unitAxis1.mag();
- G4double ux1 = unitAxis1.x();
- G4double uy1 = unitAxis1.y();
- G4double uz1 = unitAxis1.z();
- G4ThreeVector top1 = G4ThreeVector(cos(coneangle1)+pow(ux1,2)*(1-cos(coneangle1)), ux1*uy1*(1-cos(coneangle1))-uz1*sin(coneangle1), ux1*uz1*(1-cos(coneangle1))+uy1*sin(coneangle1));
- G4ThreeVector mid1 = G4ThreeVector(uy1*ux1*(1-cos(coneangle1))+uz1*sin(coneangle1), cos(coneangle1)+pow(uy1,2)*(1-cos(coneangle1)), uy1*uz1*(1-cos(coneangle1))-ux1*sin(coneangle1));
- G4ThreeVector bot1 = G4ThreeVector(uz1*ux1*(1-cos(coneangle1))-uy1*sin(coneangle1), uz1*uy1*(1-cos(coneangle1))+ux1*sin(coneangle1), cos(coneangle1)+pow(uz1,2)*(1-cos(coneangle1)));
- G4RotationMatrix firstBox_rotm1 = G4RotationMatrix();
- firstBox_rotm1.setRows(top1,mid1,bot1);
- G4ThreeVector firstBox_pos1 = G4ThreeVector(0,0,0);
- G4Transform3D firstBox_trans1 = G4Transform3D(firstBox_rotm1, firstBox_pos1);
- G4RotationMatrix secondBox_rotm1 = G4RotationMatrix();
- secondBox_rotm1.setRows(top1,mid1,bot1);
- G4ThreeVector secondBox_pos1 = (2*distanceFromTarget1+detThickness1)/distanceFromTarget1*d01;
- G4Transform3D secondBox_trans1 = G4Transform3D(secondBox_rotm1, secondBox_pos1);
-
- G4Orb* solidTip1 =
- new G4Orb("tip1",
- .0001*mm);
- G4Box* solidSubtractionBox1 =
- new G4Box("SubtractionBox1", //its name
- distanceFromTarget1,
- distanceFromTarget1,
- distanceFromTarget1); //its size
- G4Cons* solidCone1 =
- new G4Cons("Cone1", //its name
- crystal_rmina1, crystal_rmaxa1,
- crystal_rminb1, crystal_rmaxb1,
- crystal_hz1,
- crystal_phimin1, crystal_phimax1); //its size
- G4UnionSolid* solidTippedCone1 =
- new G4UnionSolid("TippedCone1",
- solidTip1,
- solidCone1,
- tip_trans1);
- G4SubtractionSolid* solidIntermediate1 =
- new G4SubtractionSolid("Intermediate1",
- solidTippedCone1,
- solidSubtractionBox1,
- firstBox_trans1);
- G4SubtractionSolid* solidCrystal1 =
- new G4SubtractionSolid("Crystal1",
- solidIntermediate1,
- solidSubtractionBox1,
- secondBox_trans1);
-
- G4LogicalVolume* logicCrystal1 =
- new G4LogicalVolume(solidCrystal1, //its solid
- CsI, //its material
- "CsI Detector1"); //its name
- logicCrystal1->SetVisAttributes(crystalVisAtt);
- logicCrystal1->SetSensitiveDetector(m_MicroballScorer);
- //fScoringVolume = logicCrystal1;
-
- //
- // Light Guide
- //
- G4double lightGuide_px1 = 10*mm;
- G4double lightGuide_py1 = 10*mm;
- G4double lightGuide_pz1 = lgThickness1;
- G4Box* solidLightGuide1 =
- new G4Box("LightGuide1", //its name
- 0.5*lightGuide_px1,
- 0.5*lightGuide_py1,
- 0.5*lightGuide_pz1); //its size
-
- G4LogicalVolume* logicLightGuide1 =
- new G4LogicalVolume(solidLightGuide1, //its solid
- glass, //its material
- "LightGuide1"); //its name
- logicLightGuide1->SetVisAttributes(lightGuideVisAtt);
-
- for(int i = 1; i <= detNum1; i++)
- {
- G4RotationMatrix crystal_rotm = G4RotationMatrix();
- G4ThreeVector d0 = G4ThreeVector(distanceFromTarget1*sin(coneangle1)*cos(0.5*360*deg/detNum1),
- distanceFromTarget1*sin(coneangle1)*sin(0.5*360*deg/detNum1),
- distanceFromTarget1*cos(coneangle1));
- G4ThreeVector df = G4ThreeVector(distanceFromTarget1*sin(theta1)*sin((i-1)*360*deg/detNum1+.001*deg/*+0.5*360*deg/detNum1*/),
- distanceFromTarget1*sin(theta1)*cos((i-1)*360*deg/detNum1+.001*deg/*+0.5*360*deg/detNum1*/),
- -distanceFromTarget1*cos(theta1));
- G4ThreeVector axis = d0.cross(df);
- G4double ax = axis.x();
- G4double ay = axis.y();
- G4double az = axis.z();
- G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
- G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
- G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
- G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
- G4RotationMatrix abc = G4RotationMatrix();
- abc.setRows(a,b,c);
- G4ThreeVector unitdf = df/df.mag();
- G4double udfx = unitdf.x();
- G4double udfy = unitdf.y();
- G4double udfz = unitdf.z();
- G4double k = 180.*deg;
- G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
- G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
- G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
- G4RotationMatrix def = G4RotationMatrix();
- def.setRows(d,e,f);
- crystal_rotm=def*abc;
- if (m_Flip == 0){
- crystal_rotm.rotateY(180*deg);
- }
- crystal_rotm.rotateZ(180*deg);
- G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
- G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
- G4RotationMatrix lg_rotm = G4RotationMatrix();
- G4ThreeVector lg_Axis = df.cross(z1);
- lg_Axis = lg_Axis/lg_Axis.mag();
- lg_Axis.rotateZ(180*deg);
- G4double ulgx = lg_Axis.x();
- G4double ulgy = lg_Axis.y();
- G4double ulgz = lg_Axis.z();
- G4ThreeVector p = G4ThreeVector(cos(theta1)+pow(ulgx,2)*(1-cos(theta1)), ulgx*ulgy*(1-cos(theta1))-ulgz*sin(theta1), ulgx*ulgz*(1-cos(theta1))+ulgy*sin(theta1));
- G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta1))+ulgz*sin(theta1), cos(theta1)+pow(ulgy,2)*(1-cos(theta1)), ulgy*ulgz*(1-cos(theta1))-ulgx*sin(theta1));
- G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta1))-ulgy*sin(theta1), ulgz*ulgy*(1-cos(theta1))+ulgx*sin(theta1), cos(theta1)+pow(ulgz,2)*(1-cos(theta1)));
- G4RotationMatrix pqr = G4RotationMatrix();
- pqr.setRows(p,q,r);
- lg_rotm.rotateZ((i-1)*360*deg/detNum1);
- lg_rotm.rotateX(180*deg);
- lg_rotm=pqr*lg_rotm;
- G4ThreeVector lg_pos = (distanceFromTarget1+detThickness1+0.5*lgThickness1)/df.mag()*df;
- lg_pos.rotateZ(180*deg);
- if (m_Flip == 0){
- lg_pos.rotateY(180*deg);
- lg_rotm.rotateY(180*deg);
- }
- G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
- G4RotationMatrix delrin_rotm = G4RotationMatrix();
- G4ThreeVector w = G4ThreeVector(sin(theta1)*sin((i-1)*360*deg/detNum1+.001*deg), sin(theta1)*cos((i-1)*360*deg/detNum1+.001*deg), cos(theta1));
- G4ThreeVector delrin_Axis = w.cross(z1);
- delrin_Axis = delrin_Axis/delrin_Axis.mag();
- delrin_Axis.rotateX(180*deg);
- G4double udx = delrin_Axis.x();
- G4double udy = delrin_Axis.y();
- G4double udz = delrin_Axis.z();
- G4double delAng = 90*deg+theta1;
- G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
- G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
- G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
- G4RotationMatrix pqrdel = G4RotationMatrix();
- pqrdel.setRows(pdel,qdel,rdel);
- delrin_rotm.rotateZ((i-1)*360*deg/detNum1+.001*deg);
- delrin_rotm=pqrdel*delrin_rotm;
- G4ThreeVector delrin_pos = (distanceFromTarget1+detThickness1+lgThickness1+delrinA1/2+.0003*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
- delrin_pos.rotateZ(180*deg);
- delrin_pos.rotateY(180*deg);
- if (m_Flip == 1){
- delrin_pos.rotateY(180*deg);
- delrin_rotm.rotateY(180*deg);
- }
- G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
- bool placeCrystal = true;
- for (unsigned int i2=0; i2 < m_Array.size(); i2++){
- if (0 < m_Array[i2] && m_Array[i2] < 7){
- /*if (1+6-m_Array[i2] == 0+i){
- placeCrystal = false;
- }*/
- if (m_Array[i2] == 0+i){
- placeCrystal = false;
- }
- }
- }
- if (placeCrystal){
- if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
- logicCrystal1, //its logical volume
- "CsI Detector1", //its name
- world, //its mother volume
- false, //no boolean operation
- 0+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
- logicLightGuide1, //its logical volume
- "LightGuide1", //its name
- world, //its mother volume
- false, //no boolean operation
- 0+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
- logicDelrin1, //its logical volume
- "Delrin1", //its name
- world, //its mother volume
- false, //no boolean operation
- 0+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- }}
- if(m_Ring2){
- // Ring 2 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ lg pseudofixed
- G4int detNum2 = 10;
- G4double distanceFromTargetBack2 = 80.*mm;
- G4double theta2 = 21.0*deg;
- G4double halfTheta2 = 7.0*deg; //+0.1*deg; //0.1 is a fudge factor to make it cover solid angle 4pi
- G4double lgThickness2 = 7.5*mm;
- G4double detThickness2 = 7.2*mm;
- G4double distanceFromTarget2 = distanceFromTargetBack2 - detThickness2;
-
- //G4double distance2 = distanceFromTarget2*sin(theta2); //this gives the distance from the beam axis.
-
- //
- // Delrin Ring
- //
- G4double delrinA2 = 5*mm;
- G4double delrinB2 = 10*mm;
- G4double fdelrinHalfAngle2 = atan(delrinB2/2/(distanceFromTarget2+detThickness2+lgThickness2));
- G4double firs2 = pow(pow(distanceFromTarget2+detThickness2+lgThickness2,2)+pow(delrinB2/2,2),0.5)*sin(theta2-fdelrinHalfAngle2);
- G4double firb2 = pow(pow(distanceFromTarget2+detThickness2+lgThickness2,2)+pow(delrinB2/2,2),0.5)*sin(theta2+fdelrinHalfAngle2);
- G4double bdelrinHalfAngle2 = atan(delrinB2/2/(distanceFromTarget2+detThickness2+lgThickness2+delrinA2));
- G4double birs2 = pow(pow(distanceFromTarget2+detThickness2+lgThickness2+delrinA2,2)+pow(delrinB2/2,2),0.5)*sin(theta2-bdelrinHalfAngle2);
- G4double birb2 = pow(pow(distanceFromTarget2+detThickness2+lgThickness2+delrinA2,2)+pow(delrinB2/2,2),0.5)*sin(theta2+bdelrinHalfAngle2);
-
- G4double delrin_dz2 = delrinB2/2;
- G4double delrin_theta2 = 0;
- G4double delrin_phi2 = 0;
- G4double delrin_dyab2 = delrinA2/2;
- G4double delrin_dxa2 = firs2*tan(180*deg/detNum2);
- G4double delrin_dxb2 = birs2*tan(180*deg/detNum2);
- G4double delrin_dycd2 = delrinA2/2;
- G4double delrin_dxc2 = firb2*tan(180*deg/detNum2);
- G4double delrin_dxd2 = birb2*tan(180*deg/detNum2);
- G4double delrin_alpab2 = 0;
- G4double delrin_alpcd2 = delrin_alpab2;
-
-
- G4ThreeVector delrin_pos2 = G4ThreeVector(0,0,distanceFromTarget2*cos(theta2));
-
- G4Trap* solidDelrin2 =
- new G4Trap("Delrin2", //its name
- delrin_dz2,
- delrin_theta2, delrin_phi2,
- delrin_dyab2,
- delrin_dxa2, delrin_dxb2,
- delrin_alpab2,
- delrin_dycd2,
- delrin_dxc2, delrin_dxd2,
- delrin_alpcd2); //its size
-
- G4LogicalVolume* logicDelrin2 =
- new G4LogicalVolume(solidDelrin2, //its solid
- delrin, //its material
- "Delrin2"); //its name
- logicDelrin2->SetVisAttributes(delrinVisAtt);
-
-
- //
- // CsI Detector
- //
- G4double coneheight2 = 2*distanceFromTarget2;
- G4double flatheight2 = coneheight2-0.01*mm;
- G4double coneangle2 = theta2;
- G4double crystal_rmina2 = (coneheight2-flatheight2)*tan(coneangle2-halfTheta2);
- G4double crystal_rmaxa2 = (coneheight2-flatheight2)*tan(coneangle2+halfTheta2);
- G4double crystal_rminb2 = coneheight2*tan(coneangle2-halfTheta2);
- G4double crystal_rmaxb2 = coneheight2*tan(coneangle2+halfTheta2);
- G4double crystal_hz2 = 0.5*flatheight2;//(crystal_rmaxb2-crystal_rmaxa2)/crystal_rmaxb2*coneheight2;
- G4double crystal_phimin2 = 0.*deg, crystal_phimax2 = 360.*deg/detNum2;
- G4RotationMatrix tip_rotm2 = G4RotationMatrix();
- G4ThreeVector tip_pos2 = G4ThreeVector(0,0,0.5*flatheight2+(coneheight2-flatheight2));
- G4Transform3D tip_trans2 = G4Transform3D(tip_rotm2, tip_pos2);
- G4ThreeVector z2 = G4ThreeVector(0,0,1);
- G4ThreeVector d02 = G4ThreeVector(distanceFromTarget2*sin(coneangle2)*cos(0.5*360*deg/detNum2),
- distanceFromTarget2*sin(coneangle2)*sin(0.5*360*deg/detNum2),
- distanceFromTarget2*cos(coneangle2));
- G4ThreeVector unitAxis2 = z2.cross(d02);
- unitAxis2 = unitAxis2/unitAxis2.mag();
- G4double ux2 = unitAxis2.x();
- G4double uy2 = unitAxis2.y();
- G4double uz2 = unitAxis2.z();
- G4ThreeVector top2 = G4ThreeVector(cos(coneangle2)+pow(ux2,2)*(1-cos(coneangle2)), ux2*uy2*(1-cos(coneangle2))-uz2*sin(coneangle2), ux2*uz2*(1-cos(coneangle2))+uy2*sin(coneangle2));
- G4ThreeVector mid2 = G4ThreeVector(uy2*ux2*(1-cos(coneangle2))+uz2*sin(coneangle2), cos(coneangle2)+pow(uy2,2)*(1-cos(coneangle2)), uy2*uz2*(1-cos(coneangle2))-ux2*sin(coneangle2));
- G4ThreeVector bot2 = G4ThreeVector(uz2*ux2*(1-cos(coneangle2))-uy2*sin(coneangle2), uz2*uy2*(1-cos(coneangle2))+ux2*sin(coneangle2), cos(coneangle2)+pow(uz2,2)*(1-cos(coneangle2)));
- G4RotationMatrix firstBox_rotm2 = G4RotationMatrix();
- firstBox_rotm2.setRows(top2,mid2,bot2);
- G4ThreeVector firstBox_pos2 = G4ThreeVector(0,0,0);
- G4Transform3D firstBox_trans2 = G4Transform3D(firstBox_rotm2, firstBox_pos2);
- G4RotationMatrix secondBox_rotm2 = G4RotationMatrix();
- secondBox_rotm2.setRows(top2,mid2,bot2);
- G4ThreeVector secondBox_pos2 = (2*distanceFromTarget2+detThickness2)/distanceFromTarget2*d02;
- G4Transform3D secondBox_trans2 = G4Transform3D(secondBox_rotm2, secondBox_pos2);
-
- G4Orb* solidTip2 =
- new G4Orb("tip2",
- .0001*mm);
- G4Box* solidSubtractionBox2 =
- new G4Box("SubtractionBox2", //its name
- distanceFromTarget2,
- distanceFromTarget2,
- distanceFromTarget2); //its size
- G4Cons* solidCone2 =
- new G4Cons("Cone2", //its name
- crystal_rmina2, crystal_rmaxa2,
- crystal_rminb2, crystal_rmaxb2,
- crystal_hz2,
- crystal_phimin2, crystal_phimax2); //its size
- G4UnionSolid* solidTippedCone2 =
- new G4UnionSolid("TippedCone2",
- solidTip2,
- solidCone2,
- tip_trans2);
- G4SubtractionSolid* solidIntermediate2 =
- new G4SubtractionSolid("Intermediate2",
- solidTippedCone2,
- solidSubtractionBox2,
- firstBox_trans2);
- G4SubtractionSolid* solidCrystal2 =
- new G4SubtractionSolid("Crystal2",
- solidIntermediate2,
- solidSubtractionBox2,
- secondBox_trans2);
-
- G4LogicalVolume* logicCrystal2 =
- new G4LogicalVolume(solidCrystal2, //its solid
- CsI, //its material
- "CsI Detector2"); //its name
- logicCrystal2->SetVisAttributes(crystalVisAtt);
- logicCrystal2->SetSensitiveDetector(m_MicroballScorer);
- //
- // Light Guide
- //
- G4double lightGuide_px2 = 10*mm;
- G4double lightGuide_py2 = 10*mm;
- G4double lightGuide_pz2 = lgThickness2;
- G4Box* solidLightGuide2 =
- new G4Box("LightGuide2", //its name
- 0.5*lightGuide_px2,
- 0.5*lightGuide_py2,
- 0.5*lightGuide_pz2); //its size
-
- G4LogicalVolume* logicLightGuide2 =
- new G4LogicalVolume(solidLightGuide2, //its solid
- glass, //its material
- "LightGuide2"); //its name
- logicLightGuide2->SetVisAttributes(lightGuideVisAtt);
-
- for(int i = 1; i <= detNum2; i++)
- {
- G4RotationMatrix crystal_rotm = G4RotationMatrix();
- G4ThreeVector d0 = G4ThreeVector(distanceFromTarget2*sin(coneangle2)*cos(0.5*360*deg/detNum2),
- distanceFromTarget2*sin(coneangle2)*sin(0.5*360*deg/detNum2),
- distanceFromTarget2*cos(coneangle2));
- G4ThreeVector df = G4ThreeVector(distanceFromTarget2*sin(theta2)*sin((i-1)*360*deg/detNum2+.001*deg/*+0.5*360*deg/detNum2*/),
- distanceFromTarget2*sin(theta2)*cos((i-1)*360*deg/detNum2+.001*deg/*+0.5*360*deg/detNum2*/),
- -distanceFromTarget2*cos(theta2));
- G4ThreeVector axis = d0.cross(df);
- G4double ax = axis.x();
- G4double ay = axis.y();
- G4double az = axis.z();
- G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
- G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
- G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
- G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
- G4RotationMatrix abc = G4RotationMatrix();
- abc.setRows(a,b,c);
- G4ThreeVector unitdf = df/df.mag();
- G4double udfx = unitdf.x();
- G4double udfy = unitdf.y();
- G4double udfz = unitdf.z();
- G4double k = 180.*deg;
- G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
- G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
- G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
- G4RotationMatrix def = G4RotationMatrix();
- def.setRows(d,e,f);
- crystal_rotm=def*abc;
- if (m_Flip == 0){
- crystal_rotm.rotateY(180*deg);
- }
- crystal_rotm.rotateZ(180*deg);
- G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
- G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
- G4RotationMatrix lg_rotm = G4RotationMatrix();
- G4ThreeVector lg_Axis = df.cross(z2);
- lg_Axis = lg_Axis/lg_Axis.mag();
- lg_Axis.rotateZ(180*deg);
- G4double ulgx = lg_Axis.x();
- G4double ulgy = lg_Axis.y();
- G4double ulgz = lg_Axis.z();
- G4ThreeVector p = G4ThreeVector(cos(theta2)+pow(ulgx,2)*(1-cos(theta2)), ulgx*ulgy*(1-cos(theta2))-ulgz*sin(theta2), ulgx*ulgz*(1-cos(theta2))+ulgy*sin(theta2));
- G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta2))+ulgz*sin(theta2), cos(theta2)+pow(ulgy,2)*(1-cos(theta2)), ulgy*ulgz*(1-cos(theta2))-ulgx*sin(theta2));
- G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta2))-ulgy*sin(theta2), ulgz*ulgy*(1-cos(theta2))+ulgx*sin(theta2), cos(theta2)+pow(ulgz,2)*(1-cos(theta2)));
- G4RotationMatrix pqr = G4RotationMatrix();
- pqr.setRows(p,q,r);
- lg_rotm.rotateZ((i-1)*360*deg/detNum2);
- lg_rotm.rotateX(180*deg);
- lg_rotm=pqr*lg_rotm;
- G4ThreeVector lg_pos = (distanceFromTarget2+detThickness2+0.5*lgThickness2)/df.mag()*df;
- lg_pos.rotateZ(180*deg);
- if (m_Flip == 0){
- lg_pos.rotateY(180*deg);
- lg_rotm.rotateY(180*deg);
- }
- G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
- G4Transform3D d0_trans = G4Transform3D(G4RotationMatrix(), d0);
- G4Transform3D df_trans = G4Transform3D(G4RotationMatrix(), df);
- G4RotationMatrix delrin_rotm = G4RotationMatrix();
- G4ThreeVector w = G4ThreeVector(sin(theta2)*sin((i-1)*360*deg/detNum2+.001*deg), sin(theta2)*cos((i-1)*360*deg/detNum2+.001*deg), cos(theta2));
- G4ThreeVector delrin_Axis = w.cross(z2);
- delrin_Axis.rotateX(180*deg);
- delrin_Axis = delrin_Axis/delrin_Axis.mag();
- G4double udx = delrin_Axis.x();
- G4double udy = delrin_Axis.y();
- G4double udz = delrin_Axis.z();
- G4double delAng = 90*deg+theta2;
- G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
- G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
- G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
- G4RotationMatrix pqrdel = G4RotationMatrix();
- pqrdel.setRows(pdel,qdel,rdel);
- delrin_rotm.rotateZ((i-1)*360*deg/detNum2+.001*deg);
- delrin_rotm=pqrdel*delrin_rotm;
- delrin_rotm.rotateZ(0*deg);
- G4ThreeVector delrin_pos = (distanceFromTarget2+detThickness2+lgThickness2+delrinA2/2+.0003*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
- delrin_pos.rotateZ(180*deg);
- delrin_pos.rotateY(180*deg);
- if (m_Flip == 1){
- delrin_pos.rotateY(180*deg);
- delrin_rotm.rotateY(180*deg);
- }
- G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
- bool placeCrystal = true;
- for (unsigned int i2=0; i2 < m_Array.size(); i2++){
- if (6 < m_Array[i2] && m_Array[i2] < 17){
- if (m_Array[i2] == 6+i){
- placeCrystal = false;
- }
- }
- }
- if (placeCrystal){
- if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
- logicCrystal2, //its logical volume
- "CsI Detector2", //its name
- world, //its mother volume
- false, //no boolean operation
- 6+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
- logicLightGuide2, //its logical volume
- "LightGuide2", //its name
- world, //its mother volume
- false, //no boolean operation
- 6+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
- logicDelrin2, //its logical volume
- "Delrin2", //its name
- world, //its mother volume
- false, //no boolean operation
- 6+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- }}
-
- if(m_Ring3){
- // Ring 3 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ lg pseudofixed
- G4int detNum3 = 12;
- G4double distanceFromTargetBack3 = 60.*mm;
- G4double theta3 = 36.0*deg;
- G4double halfTheta3 = 8.0*deg;
- G4double lgThickness3 = 6.0*mm;
- G4double detThickness3 = 6.4*mm;
- G4double distanceFromTarget3 = distanceFromTargetBack3 - detThickness3;
-
- //G4double distance3 = distanceFromTarget3*sin(theta3); //this gives the distance from the beam axis.
-
- //
- // Delrin Ring
- //
- G4double delrinA3 = 5*mm;
- G4double delrinB3 = 10*mm;
- G4double fdelrinHalfAngle3 = atan(delrinB3/2/(distanceFromTarget3+detThickness3+lgThickness3));
- G4double firs3 = pow(pow(distanceFromTarget3+detThickness3+lgThickness3,2)+pow(delrinB3/2,2),0.5)*sin(theta3-fdelrinHalfAngle3);
- G4double firb3 = pow(pow(distanceFromTarget3+detThickness3+lgThickness3,2)+pow(delrinB3/2,2),0.5)*sin(theta3+fdelrinHalfAngle3);
- G4double bdelrinHalfAngle3 = atan(delrinB3/2/(distanceFromTarget3+detThickness3+lgThickness3+delrinA3));
- G4double birs3 = pow(pow(distanceFromTarget3+detThickness3+lgThickness3+delrinA3,2)+pow(delrinB3/2,2),0.5)*sin(theta3-bdelrinHalfAngle3);
- G4double birb3 = pow(pow(distanceFromTarget3+detThickness3+lgThickness3+delrinA3,2)+pow(delrinB3/2,2),0.5)*sin(theta3+bdelrinHalfAngle3);
-
- G4double delrin_dz3 = delrinB3/2;
- G4double delrin_theta3 = 0;
- G4double delrin_phi3 = 0;
- G4double delrin_dyab3 = delrinA3/2;
- G4double delrin_dxa3 = firs3*tan(180*deg/detNum3);
- G4double delrin_dxb3 = birs3*tan(180*deg/detNum3);
- G4double delrin_dycd3 = delrinA3/2;
- G4double delrin_dxc3 = firb3*tan(180*deg/detNum3);
- G4double delrin_dxd3 = birb3*tan(180*deg/detNum3);
- G4double delrin_alpab3 = 0;
- G4double delrin_alpcd3 = delrin_alpab3;
-
-
- G4ThreeVector delrin_pos3 = G4ThreeVector(0,0,distanceFromTarget3*cos(theta3));
-
- G4Trap* solidDelrin3 =
- new G4Trap("Delrin3", //its name
- delrin_dz3,
- delrin_theta3, delrin_phi3,
- delrin_dyab3,
- delrin_dxa3, delrin_dxb3,
- delrin_alpab3,
- delrin_dycd3,
- delrin_dxc3, delrin_dxd3,
- delrin_alpcd3); //its size
-
- G4LogicalVolume* logicDelrin3 =
- new G4LogicalVolume(solidDelrin3, //its solid
- delrin, //its material
- "Delrin3"); //its name
- logicDelrin3->SetVisAttributes(delrinVisAtt);
-
- //
- // CsI Detector
- //
- G4double coneheight3 = distanceFromTarget3;
- G4double flatheight3 = coneheight3-0.01*mm;
- G4double coneangle3 = theta3;
- G4double crystal_rmina3 = (coneheight3-flatheight3)*tan(coneangle3-halfTheta3);
- G4double crystal_rmaxa3 = (coneheight3-flatheight3)*tan(coneangle3+halfTheta3);
- G4double crystal_rminb3 = coneheight3*tan(coneangle3-halfTheta3);
- G4double crystal_rmaxb3 = coneheight3*tan(coneangle3+halfTheta3);
- G4double crystal_hz3 = 0.5*flatheight3;//(crystal_rmaxb3-crystal_rmaxa3)/crystal_rmaxb3*coneheight3;
- G4double crystal_phimin3 = 0.*deg, crystal_phimax3 = 360.*deg/detNum3;
- G4RotationMatrix tip_rotm3 = G4RotationMatrix();
- G4ThreeVector tip_pos3 = G4ThreeVector(0,0,0.5*flatheight3+(coneheight3-flatheight3));
- G4Transform3D tip_trans3 = G4Transform3D(tip_rotm3, tip_pos3);
- G4ThreeVector z3 = G4ThreeVector(0,0,1);
- G4ThreeVector d03 = G4ThreeVector(distanceFromTarget3*sin(coneangle3)*cos(0.5*360*deg/detNum3),
- distanceFromTarget3*sin(coneangle3)*sin(0.5*360*deg/detNum3),
- distanceFromTarget3*cos(coneangle3));
- G4ThreeVector unitAxis3 = z3.cross(d03);
- unitAxis3 = unitAxis3/unitAxis3.mag();
- G4double ux3 = unitAxis3.x();
- G4double uy3 = unitAxis3.y();
- G4double uz3 = unitAxis3.z();
- G4ThreeVector top3 = G4ThreeVector(cos(coneangle3)+pow(ux3,2)*(1-cos(coneangle3)), ux3*uy3*(1-cos(coneangle3))-uz3*sin(coneangle3), ux3*uz3*(1-cos(coneangle3))+uy3*sin(coneangle3));
- G4ThreeVector mid3 = G4ThreeVector(uy3*ux3*(1-cos(coneangle3))+uz3*sin(coneangle3), cos(coneangle3)+pow(uy3,2)*(1-cos(coneangle3)), uy3*uz3*(1-cos(coneangle3))-ux3*sin(coneangle3));
- G4ThreeVector bot3 = G4ThreeVector(uz3*ux3*(1-cos(coneangle3))-uy3*sin(coneangle3), uz3*uy3*(1-cos(coneangle3))+ux3*sin(coneangle3), cos(coneangle3)+pow(uz3,2)*(1-cos(coneangle3)));
- G4RotationMatrix firstBox_rotm3 = G4RotationMatrix();
- firstBox_rotm3.setRows(top3,mid3,bot3);
- G4ThreeVector firstBox_pos3 = G4ThreeVector(0,0,0);
- G4Transform3D firstBox_trans3 = G4Transform3D(firstBox_rotm3, firstBox_pos3);
- G4RotationMatrix secondBox_rotm3 = G4RotationMatrix();
- secondBox_rotm3.setRows(top3,mid3,bot3);
- G4ThreeVector secondBox_pos3 = (2*distanceFromTarget3+detThickness3)/distanceFromTarget3*d03;
- G4Transform3D secondBox_trans3 = G4Transform3D(secondBox_rotm3, secondBox_pos3);
-
- G4Orb* solidTip3 =
- new G4Orb("tip3",
- .0001*mm);
- G4Box* solidSubtractionBox3 =
- new G4Box("SubtractionBox3", //its name
- distanceFromTarget3,
- distanceFromTarget3,
- distanceFromTarget3); //its size
- G4Cons* solidCone3 =
- new G4Cons("Cone3", //its name
- crystal_rmina3, crystal_rmaxa3,
- crystal_rminb3, crystal_rmaxb3,
- crystal_hz3,
- crystal_phimin3, crystal_phimax3); //its size
- G4UnionSolid* solidTippedCone3 =
- new G4UnionSolid("TippedCone3",
- solidTip3,
- solidCone3,
- tip_trans3);
- G4SubtractionSolid* solidIntermediate3 =
- new G4SubtractionSolid("Intermediate3",
- solidTippedCone3,
- solidSubtractionBox3,
- firstBox_trans3);
- G4SubtractionSolid* solidCrystal3 =
- new G4SubtractionSolid("Crystal3",
- solidIntermediate3,
- solidSubtractionBox3,
- secondBox_trans3);
-
- G4LogicalVolume* logicCrystal3 =
- new G4LogicalVolume(solidCrystal3, //its solid
- CsI, //its material
- "CsI Detector3"); //its name
- logicCrystal3->SetVisAttributes(crystalVisAtt);
- logicCrystal3->SetSensitiveDetector(m_MicroballScorer);
-
-
- //
- // Light Guide
- //
- G4double lightGuide_px3 = 10*mm;
- G4double lightGuide_py3 = 10*mm;
- G4double lightGuide_pz3 = lgThickness3;
- G4Box* solidLightGuide3 =
- new G4Box("LightGuide3", //its name
- 0.5*lightGuide_px3,
- 0.5*lightGuide_py3,
- 0.5*lightGuide_pz3); //its size
-
- G4LogicalVolume* logicLightGuide3 =
- new G4LogicalVolume(solidLightGuide3, //its solid
- glass, //its material
- "LightGuide3"); //its name
- logicLightGuide3->SetVisAttributes(lightGuideVisAtt);
-
-
- for(int i = 1; i <= detNum3; i++)
- {
- G4RotationMatrix crystal_rotm = G4RotationMatrix();
- G4ThreeVector d0 = G4ThreeVector(distanceFromTarget3*sin(coneangle3)*cos(0.5*360*deg/detNum3),
- distanceFromTarget3*sin(coneangle3)*sin(0.5*360*deg/detNum3),
- distanceFromTarget3*cos(coneangle3));
- G4ThreeVector df = G4ThreeVector(distanceFromTarget3*sin(theta3)*sin((i-1)*360*deg/detNum3+.001*deg/*+0.5*360*deg/detNum3*/),
- distanceFromTarget3*sin(theta3)*cos((i-1)*360*deg/detNum3+.001*deg/*+0.5*360*deg/detNum3*/),
- -distanceFromTarget3*cos(theta3));
- G4ThreeVector axis = d0.cross(df);
- G4double ax = axis.x();
- G4double ay = axis.y();
- G4double az = axis.z();
- G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
- G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
- G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
- G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
- G4RotationMatrix abc = G4RotationMatrix();
- abc.setRows(a,b,c);
- G4ThreeVector unitdf = df/df.mag();
- G4double udfx = unitdf.x();
- G4double udfy = unitdf.y();
- G4double udfz = unitdf.z();
- G4double k = 180.*deg;
- G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
- G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
- G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
- G4RotationMatrix def = G4RotationMatrix();
- def.setRows(d,e,f);
- crystal_rotm=def*abc;
- if (m_Flip == 0){
- crystal_rotm.rotateY(180*deg);
- }
- crystal_rotm.rotateZ(180*deg);
- G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
- G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
- G4RotationMatrix lg_rotm = G4RotationMatrix();
- G4ThreeVector lg_Axis = df.cross(z3);
- lg_Axis = lg_Axis/lg_Axis.mag();
- lg_Axis.rotateZ(180*deg);
- G4double ulgx = lg_Axis.x();
- G4double ulgy = lg_Axis.y();
- G4double ulgz = lg_Axis.z();
- G4ThreeVector p = G4ThreeVector(cos(theta3)+pow(ulgx,2)*(1-cos(theta3)), ulgx*ulgy*(1-cos(theta3))-ulgz*sin(theta3), ulgx*ulgz*(1-cos(theta3))+ulgy*sin(theta3));
- G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta3))+ulgz*sin(theta3), cos(theta3)+pow(ulgy,2)*(1-cos(theta3)), ulgy*ulgz*(1-cos(theta3))-ulgx*sin(theta3));
- G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta3))-ulgy*sin(theta3), ulgz*ulgy*(1-cos(theta3))+ulgx*sin(theta3), cos(theta3)+pow(ulgz,2)*(1-cos(theta3)));
- G4RotationMatrix pqr = G4RotationMatrix();
- pqr.setRows(p,q,r);
- lg_rotm.rotateZ((i-1)*360*deg/detNum3);
- lg_rotm.rotateX(180*deg);
- lg_rotm=pqr*lg_rotm;
- G4ThreeVector lg_pos = (distanceFromTarget3+detThickness3+0.5*lgThickness3)/df.mag()*df;
- lg_pos.rotateZ(180*deg);
- if (m_Flip == 0){
- lg_pos.rotateY(180*deg);
- lg_rotm.rotateY(180*deg);
- }
- G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
- G4RotationMatrix delrin_rotm = G4RotationMatrix();
- G4ThreeVector w = G4ThreeVector(sin(theta3)*sin((i-1)*360*deg/detNum3+.001*deg), sin(theta3)*cos((i-1)*360*deg/detNum3+.001*deg), cos(theta3));
- G4ThreeVector delrin_Axis = w.cross(z3);
- delrin_Axis.rotateX(180*deg);
- delrin_Axis = delrin_Axis/delrin_Axis.mag();
- G4double udx = delrin_Axis.x();
- G4double udy = delrin_Axis.y();
- G4double udz = delrin_Axis.z();
- G4double delAng = 90*deg+theta3;
- G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
- G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
- G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
- G4RotationMatrix pqrdel = G4RotationMatrix();
- pqrdel.setRows(pdel,qdel,rdel);
- delrin_rotm.rotateZ((i-1)*360*deg/detNum3+.001*deg);
- delrin_rotm=pqrdel*delrin_rotm;
- delrin_rotm.rotateZ(0*deg);
- G4ThreeVector delrin_pos = (distanceFromTarget3+detThickness3+lgThickness3+delrinA3/2+.0003*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
- delrin_pos.rotateZ(180*deg);
- delrin_pos.rotateY(180*deg);
- if (m_Flip == 1){
- delrin_pos.rotateY(180*deg);
- delrin_rotm.rotateY(180*deg);
- }
- G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
- //if(i != 1){
- bool placeCrystal = true;
- for (unsigned int i2=0; i2 < m_Array.size(); i2++){
- if (16 < m_Array[i2] && m_Array[i2] < 29){
- if (m_Array[i2] == 16+i){
- placeCrystal = false;
- }
- }
- }
- if (placeCrystal){
- if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
- logicCrystal3, //its logical volume
- "CsI Detector3", //its name
- world, //its mother volume
- false, //no boolean operation
- 16+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
- logicLightGuide3, //its logical volume
- "LightGuide3", //its name
- world, //its mother volume
- false, //no boolean operation
- 16+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
- logicDelrin3, //its logical volume
- "Delrin3", //its name
- world, //its mother volume
- false, //no boolean operation
- 16+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- //}
- }}
-
- if(m_Ring4){
- // Ring 4 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
- G4int detNum4 = 12;
- G4double distanceFromTargetBack4 = 50.*mm;
- G4double theta4 = 52.0*deg;
- G4double halfTheta4 = 8.0*deg; // fudge factor
- G4double lgThickness4 = 6.0*mm;
- G4double detThickness4 = 6.0*mm;
- G4double distanceFromTarget4 = distanceFromTargetBack4 - detThickness4;
-
- //G4double distance4 = distanceFromTarget4*sin(theta4); //this gives the distance from the beam axis.
-
- //
- // Delrin Ring
- //
- G4double delrinA4 = 5*mm;
- G4double delrinB4 = 10*mm;
- G4double fdelrinHalfAngle4 = atan(delrinB4/2/(distanceFromTarget4+detThickness4+lgThickness4));
- G4double firs4 = pow(pow(distanceFromTarget4+detThickness4+lgThickness4,2)+pow(delrinB4/2,2),0.5)*sin(theta4-fdelrinHalfAngle4);
- G4double firb4 = pow(pow(distanceFromTarget4+detThickness4+lgThickness4,2)+pow(delrinB4/2,2),0.5)*sin(theta4+fdelrinHalfAngle4);
- G4double bdelrinHalfAngle4 = atan(delrinB4/2/(distanceFromTarget4+detThickness4+lgThickness4+delrinA4));
- G4double birs4 = pow(pow(distanceFromTarget4+detThickness4+lgThickness4+delrinA4,2)+pow(delrinB4/2,2),0.5)*sin(theta4-bdelrinHalfAngle4);
- G4double birb4 = pow(pow(distanceFromTarget4+detThickness4+lgThickness4+delrinA4,2)+pow(delrinB4/2,2),0.5)*sin(theta4+bdelrinHalfAngle4);
-
- G4double delrin_dz4 = delrinB4/2;
- G4double delrin_theta4 = 0;
- G4double delrin_phi4 = 0;
- G4double delrin_dyab4 = delrinA4/2;
- G4double delrin_dxa4 = firs4*tan(180*deg/detNum4);
- G4double delrin_dxb4 = birs4*tan(180*deg/detNum4);
- G4double delrin_dycd4 = delrinA4/2;
- G4double delrin_dxc4 = firb4*tan(180*deg/detNum4);
- G4double delrin_dxd4 = birb4*tan(180*deg/detNum4);
- G4double delrin_alpab4 = 0;
- G4double delrin_alpcd4 = delrin_alpab4;
-
-
- G4ThreeVector delrin_pos4 = G4ThreeVector(0,0,distanceFromTarget4*cos(theta4));
-
- G4Trap* solidDelrin4 =
- new G4Trap("Delrin4", //its name
- delrin_dz4,
- delrin_theta4, delrin_phi4,
- delrin_dyab4,
- delrin_dxa4, delrin_dxb4,
- delrin_alpab4,
- delrin_dycd4,
- delrin_dxc4, delrin_dxd4,
- delrin_alpcd4); //its size
-
- G4LogicalVolume* logicDelrin4 =
- new G4LogicalVolume(solidDelrin4, //its solid
- delrin, //its material
- "Delrin4"); //its name
- logicDelrin4->SetVisAttributes(delrinVisAtt);
-
-
- //
- // CsI Detector
- //
- G4double coneheight4 = distanceFromTarget4;
- G4double flatheight4 = coneheight4 - 0.01*mm;
- G4double coneangle4 = theta4;
- G4double crystal_rmina4 = (coneheight4-flatheight4)*tan(coneangle4-halfTheta4);
- G4double crystal_rmaxa4 = (coneheight4-flatheight4)*tan(coneangle4+halfTheta4);
- G4double crystal_rminb4 = coneheight4*tan(coneangle4-halfTheta4);
- G4double crystal_rmaxb4 = coneheight4*tan(coneangle4+halfTheta4);
- G4double crystal_hz4 = 0.5*flatheight4;//(crystal_rmaxb4-crystal_rmaxa4)/crystal_rmaxb4*coneheight4;
- G4double crystal_phimin4 = 0.*deg, crystal_phimax4 = 360.*deg/detNum4;
- G4RotationMatrix tip_rotm4 = G4RotationMatrix();
- G4ThreeVector tip_pos4 = G4ThreeVector(0,0,0.5*flatheight4+(coneheight4-flatheight4));
- G4Transform3D tip_trans4 = G4Transform3D(tip_rotm4, tip_pos4);
- G4ThreeVector z4 = G4ThreeVector(0,0,1);
- G4ThreeVector d04 = G4ThreeVector(distanceFromTarget4*sin(coneangle4)*cos(0.5*360*deg/detNum4),
- distanceFromTarget4*sin(coneangle4)*sin(0.5*360*deg/detNum4),
- distanceFromTarget4*cos(coneangle4));
- G4ThreeVector unitAxis4 = z4.cross(d04);
- unitAxis4 = unitAxis4/unitAxis4.mag();
- G4double ux4 = unitAxis4.x();
- G4double uy4 = unitAxis4.y();
- G4double uz4 = unitAxis4.z();
- G4ThreeVector top4 = G4ThreeVector(cos(coneangle4)+pow(ux4,2)*(1-cos(coneangle4)), ux4*uy4*(1-cos(coneangle4))-uz4*sin(coneangle4), ux4*uz4*(1-cos(coneangle4))+uy4*sin(coneangle4));
- G4ThreeVector mid4 = G4ThreeVector(uy4*ux4*(1-cos(coneangle4))+uz4*sin(coneangle4), cos(coneangle4)+pow(uy4,2)*(1-cos(coneangle4)), uy4*uz4*(1-cos(coneangle4))-ux4*sin(coneangle4));
- G4ThreeVector bot4 = G4ThreeVector(uz4*ux4*(1-cos(coneangle4))-uy4*sin(coneangle4), uz4*uy4*(1-cos(coneangle4))+ux4*sin(coneangle4), cos(coneangle4)+pow(uz4,2)*(1-cos(coneangle4)));
- G4RotationMatrix firstBox_rotm4 = G4RotationMatrix();
- firstBox_rotm4.setRows(top4,mid4,bot4);
- G4ThreeVector firstBox_pos4 = G4ThreeVector(0,0,0);
- G4Transform3D firstBox_trans4 = G4Transform3D(firstBox_rotm4, firstBox_pos4);
- G4RotationMatrix secondBox_rotm4 = G4RotationMatrix();
- secondBox_rotm4.setRows(top4,mid4,bot4);
- G4ThreeVector secondBox_pos4 = (2*distanceFromTarget4+detThickness4)/distanceFromTarget4*d04;
- G4Transform3D secondBox_trans4 = G4Transform3D(secondBox_rotm4, secondBox_pos4);
-
- G4Orb* solidTip4 =
- new G4Orb("tip4",
- .0001*mm);
- G4Box* solidSubtractionBox4 =
- new G4Box("SubtractionBox4", //its name
- distanceFromTarget4,
- distanceFromTarget4,
- distanceFromTarget4); //its size
- G4Cons* solidCone4 =
- new G4Cons("Cone4", //its name
- crystal_rmina4, crystal_rmaxa4,
- crystal_rminb4, crystal_rmaxb4,
- crystal_hz4,
- crystal_phimin4, crystal_phimax4); //its size
- G4UnionSolid* solidTippedCone4 =
- new G4UnionSolid("TippedCone4",
- solidTip4,
- solidCone4,
- tip_trans4);
- G4SubtractionSolid* solidIntermediate4 =
- new G4SubtractionSolid("Intermediate4",
- solidTippedCone4,
- solidSubtractionBox4,
- firstBox_trans4);
- G4SubtractionSolid* solidCrystal4 =
- new G4SubtractionSolid("Crystal4",
- solidIntermediate4,
- solidSubtractionBox4,
- secondBox_trans4);
-
- G4LogicalVolume* logicCrystal4 =
- new G4LogicalVolume(solidCrystal4, //its solid
- CsI, //its material
- "CsI Detector4"); //its name
- logicCrystal4->SetVisAttributes(crystalVisAtt);
- logicCrystal4->SetSensitiveDetector(m_MicroballScorer);
-
- //
- // Light Guide
- //
- G4double lightGuide_px4 = 10*mm;
- G4double lightGuide_py4 = 10*mm;
- G4double lightGuide_pz4 = lgThickness4;
- G4Box* solidLightGuide4 =
- new G4Box("LightGuide4", //its name
- 0.5*lightGuide_px4,
- 0.5*lightGuide_py4,
- 0.5*lightGuide_pz4); //its size
-
- G4LogicalVolume* logicLightGuide4 =
- new G4LogicalVolume(solidLightGuide4, //its solid
- glass, //its material
- "LightGuide4"); //its name
- logicLightGuide4->SetVisAttributes(lightGuideVisAtt);
-
-
- for(int i = 1; i <= detNum4; i++)
- {
- G4RotationMatrix crystal_rotm = G4RotationMatrix();
- G4ThreeVector d0 = G4ThreeVector(distanceFromTarget4*sin(coneangle4)*cos(0.5*360*deg/detNum4),
- distanceFromTarget4*sin(coneangle4)*sin(0.5*360*deg/detNum4),
- distanceFromTarget4*cos(coneangle4));
- G4ThreeVector df = G4ThreeVector(distanceFromTarget4*sin(theta4)*sin((i-1)*360*deg/detNum4+.001*deg/*+0.5*360*deg/detNum4*/),
- distanceFromTarget4*sin(theta4)*cos((i-1)*360*deg/detNum4+.001*deg/*+0.5*360*deg/detNum4*/),
- -distanceFromTarget4*cos(theta4));
- G4ThreeVector axis = d0.cross(df);
- G4double ax = axis.x();
- G4double ay = axis.y();
- G4double az = axis.z();
- G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
- G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
- G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
- G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
- G4RotationMatrix abc = G4RotationMatrix();
- abc.setRows(a,b,c);
- G4ThreeVector unitdf = df/df.mag();
- G4double udfx = unitdf.x();
- G4double udfy = unitdf.y();
- G4double udfz = unitdf.z();
- G4double k = 180.*deg;
- G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
- G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
- G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
- G4RotationMatrix def = G4RotationMatrix();
- def.setRows(d,e,f);
- crystal_rotm=def*abc;
- if (m_Flip == 0){
- crystal_rotm.rotateY(180*deg);
- }
- crystal_rotm.rotateZ(180*deg);
- G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
- G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
- G4RotationMatrix lg_rotm = G4RotationMatrix();
- G4ThreeVector lg_Axis = df.cross(z4);
- lg_Axis = lg_Axis/lg_Axis.mag();
- lg_Axis.rotateZ(180*deg);
- G4double ulgx = lg_Axis.x();
- G4double ulgy = lg_Axis.y();
- G4double ulgz = lg_Axis.z();
- G4ThreeVector p = G4ThreeVector(cos(theta4)+pow(ulgx,2)*(1-cos(theta4)), ulgx*ulgy*(1-cos(theta4))-ulgz*sin(theta4), ulgx*ulgz*(1-cos(theta4))+ulgy*sin(theta4));
- G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta4))+ulgz*sin(theta4), cos(theta4)+pow(ulgy,2)*(1-cos(theta4)), ulgy*ulgz*(1-cos(theta4))-ulgx*sin(theta4));
- G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta4))-ulgy*sin(theta4), ulgz*ulgy*(1-cos(theta4))+ulgx*sin(theta4), cos(theta4)+pow(ulgz,2)*(1-cos(theta4)));
- G4RotationMatrix pqr = G4RotationMatrix();
- pqr.setRows(p,q,r);
- lg_rotm.rotateZ((i-1)*360*deg/detNum4);
- lg_rotm.rotateX(180*deg);
- lg_rotm=pqr*lg_rotm;
- G4ThreeVector lg_pos = (distanceFromTarget4+detThickness4+0.5*lgThickness4)/df.mag()*df;
- lg_pos.rotateZ(180*deg);
- if (m_Flip == 0){
- lg_pos.rotateY(180*deg);
- lg_rotm.rotateY(180*deg);
- }
- G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
- G4RotationMatrix delrin_rotm = G4RotationMatrix();
- G4ThreeVector w = G4ThreeVector(sin(theta4)*sin((i-1)*360*deg/detNum4+.001*deg), sin(theta4)*cos((i-1)*360*deg/detNum4+.001*deg), cos(theta4));
- G4ThreeVector delrin_Axis = w.cross(z4);
- delrin_Axis.rotateX(180*deg);
- delrin_Axis = delrin_Axis/delrin_Axis.mag();
- G4double udx = delrin_Axis.x();
- G4double udy = delrin_Axis.y();
- G4double udz = delrin_Axis.z();
- G4double delAng = 90*deg+theta4;
- G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
- G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
- G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
- G4RotationMatrix pqrdel = G4RotationMatrix();
- pqrdel.setRows(pdel,qdel,rdel);
- delrin_rotm.rotateZ((i-1)*360*deg/detNum4+.001*deg);
- delrin_rotm=pqrdel*delrin_rotm;
- delrin_rotm.rotateZ(0*deg);
- G4ThreeVector delrin_pos = (distanceFromTarget4+detThickness4+lgThickness4+delrinA4/2+.0001*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
- delrin_pos.rotateZ(180*deg);
- delrin_pos.rotateY(180*deg);
- if (m_Flip == 1){
- delrin_pos.rotateY(180*deg);
- delrin_rotm.rotateY(180*deg);
- }
- G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
- //if(i != 1){
- bool placeCrystal = true;
- for (unsigned int i2=0; i2 < m_Array.size(); i2++){
- if (28 < m_Array[i2] && m_Array[i2] < 41){
- if (m_Array[i2] == 28+i){
- placeCrystal = false;
- }
- }
- }
- if (placeCrystal){
- if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
- logicCrystal4, //its logical volume
- "CsI Detector4", //its name
- world, //its mother volume
- false, //no boolean operation
- 28+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
- logicLightGuide4, //its logical volume
- "LightGuide4", //its name
- world, //its mother volume
- false, //no boolean operation
- 28+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
- logicDelrin4, //its logical volume
- "Delrin4", //its name
- world, //its mother volume
- false, //no boolean operation
- 28+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- //}
- }}
-
- if(m_Ring5){
- // Ring 5 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
- G4int detNum5 = 14;
- G4double distanceFromTargetBack5 = 50.*mm;
- G4double theta5 = 70.0*deg;
- G4double halfTheta5 = 10.0*deg;// -0.1*deg; //fudge factor
- G4double lgThickness5 = 6.0*mm;
- G4double detThickness5 = 5.6*mm;
- G4double distanceFromTarget5 = distanceFromTargetBack5 - detThickness5;
-
- //G4double distance5 = distanceFromTarget5*sin(theta5); //this gives the distance from the beam axis.
-
- //
- // Delrin Ring
- //
- G4double delrinA5 = 5*mm;
- G4double delrinB5 = 10*mm;
- G4double fdelrinHalfAngle5 = atan(delrinB5/2/(distanceFromTarget5+detThickness5+lgThickness5));
- G4double firs5 = pow(pow(distanceFromTarget5+detThickness5+lgThickness5,2)+pow(delrinB5/2,2),0.5)*sin(theta5-fdelrinHalfAngle5);
- G4double firb5 = pow(pow(distanceFromTarget5+detThickness5+lgThickness5,2)+pow(delrinB5/2,2),0.5)*sin(theta5+fdelrinHalfAngle5);
- G4double bdelrinHalfAngle5 = atan(delrinB5/2/(distanceFromTarget5+detThickness5+lgThickness5+delrinA5));
- G4double birs5 = pow(pow(distanceFromTarget5+detThickness5+lgThickness5+delrinA5,2)+pow(delrinB5/2,2),0.5)*sin(theta5-bdelrinHalfAngle5);
- G4double birb5 = pow(pow(distanceFromTarget5+detThickness5+lgThickness5+delrinA5,2)+pow(delrinB5/2,2),0.5)*sin(theta5+bdelrinHalfAngle5);
-
- G4double delrin_dz5 = delrinB5/2;
- G4double delrin_theta5 = 0;
- G4double delrin_phi5 = 0;
- G4double delrin_dyab5 = delrinA5/2;
- G4double delrin_dxa5 = firs5*tan(180*deg/detNum5);
- G4double delrin_dxb5 = birs5*tan(180*deg/detNum5);
- G4double delrin_dycd5 = delrinA5/2;
- G4double delrin_dxc5 = firb5*tan(180*deg/detNum5);
- G4double delrin_dxd5 = birb5*tan(180*deg/detNum5);
- G4double delrin_alpab5 = 0;
- G4double delrin_alpcd5 = delrin_alpab5;
-
-
- G4ThreeVector delrin_pos5 = G4ThreeVector(0,0,distanceFromTarget5*cos(theta5));
-
- G4Trap* solidDelrin5 =
- new G4Trap("Delrin5", //its name
- delrin_dz5,
- delrin_theta5, delrin_phi5,
- delrin_dyab5,
- delrin_dxa5, delrin_dxb5,
- delrin_alpab5,
- delrin_dycd5,
- delrin_dxc5, delrin_dxd5,
- delrin_alpcd5); //its size
-
- G4LogicalVolume* logicDelrin5 =
- new G4LogicalVolume(solidDelrin5, //its solid
- delrin, //its material
- "Delrin5"); //its name
- logicDelrin5->SetVisAttributes(delrinVisAtt);
-
-
- //
- // CsI Detector
- //
- G4double coneheight5 = 0.6*distanceFromTarget5;
- G4double flatheight5 = coneheight5 -0.01*mm;
- G4double coneangle5 = theta5;
- G4double crystal_rmina5 = (coneheight5-flatheight5)*tan(coneangle5-halfTheta5);
- G4double crystal_rmaxa5 = (coneheight5-flatheight5)*tan(coneangle5+halfTheta5);
- G4double crystal_rminb5 = coneheight5*tan(coneangle5-halfTheta5);
- G4double crystal_rmaxb5 = coneheight5*tan(coneangle5+halfTheta5);
- G4double crystal_hz5 = 0.5*flatheight5;//(crystal_rmaxb5-crystal_rmaxa5)/crystal_rmaxb5*coneheight5;
- G4double crystal_phimin5 = 0.*deg, crystal_phimax5 = 360.*deg/detNum5;
- G4RotationMatrix tip_rotm5 = G4RotationMatrix();
- G4ThreeVector tip_pos5 = G4ThreeVector(0,0,0.5*flatheight5+(coneheight5-flatheight5)); //last z term is a fudge
- G4Transform3D tip_trans5 = G4Transform3D(tip_rotm5, tip_pos5);
- G4ThreeVector z5 = G4ThreeVector(0,0,1);
- G4ThreeVector d05 = G4ThreeVector(distanceFromTarget5*sin(coneangle5)*cos(0.5*360*deg/detNum5),
- distanceFromTarget5*sin(coneangle5)*sin(0.5*360*deg/detNum5),
- distanceFromTarget5*cos(coneangle5));
- G4ThreeVector unitAxis5 = z5.cross(d05);
- unitAxis5 = unitAxis5/unitAxis5.mag();
- G4double ux5 = unitAxis5.x();
- G4double uy5 = unitAxis5.y();
- G4double uz5 = unitAxis5.z();
- G4ThreeVector top5 = G4ThreeVector(cos(coneangle5)+pow(ux5,2)*(1-cos(coneangle5)), ux5*uy5*(1-cos(coneangle5))-uz5*sin(coneangle5), ux5*uz5*(1-cos(coneangle5))+uy5*sin(coneangle5));
- G4ThreeVector mid5 = G4ThreeVector(uy5*ux5*(1-cos(coneangle5))+uz5*sin(coneangle5), cos(coneangle5)+pow(uy5,2)*(1-cos(coneangle5)), uy5*uz5*(1-cos(coneangle5))-ux5*sin(coneangle5));
- G4ThreeVector bot5 = G4ThreeVector(uz5*ux5*(1-cos(coneangle5))-uy5*sin(coneangle5), uz5*uy5*(1-cos(coneangle5))+ux5*sin(coneangle5), cos(coneangle5)+pow(uz5,2)*(1-cos(coneangle5)));
- G4RotationMatrix firstBox_rotm5 = G4RotationMatrix();
- firstBox_rotm5.setRows(top5,mid5,bot5);
- G4ThreeVector firstBox_pos5 = G4ThreeVector(0,0,0);
- G4Transform3D firstBox_trans5 = G4Transform3D(firstBox_rotm5, firstBox_pos5);
- G4RotationMatrix secondBox_rotm5 = G4RotationMatrix();
- secondBox_rotm5.setRows(top5,mid5,bot5);
- G4ThreeVector secondBox_pos5 = (3*distanceFromTarget5+detThickness5)/distanceFromTarget5*d05;
- G4Transform3D secondBox_trans5 = G4Transform3D(secondBox_rotm5, secondBox_pos5);
-
- G4Orb* solidTip5 =
- new G4Orb("tip5",
- .0001*mm);
- G4Box* solidSubtractionBox5 =
- new G4Box("SubtractionBox5", //its name
- distanceFromTarget5,
- distanceFromTarget5,
- distanceFromTarget5); //its size
- G4Box* solidSecondSubtractionBox5 =
- new G4Box("SecondSubtractionBox5", //its name
- 2*distanceFromTarget5,
- 2*distanceFromTarget5,
- 2*distanceFromTarget5); //its size
- G4Cons* solidCone5 =
- new G4Cons("Cone5", //its name
- crystal_rmina5, crystal_rmaxa5,
- crystal_rminb5, crystal_rmaxb5,
- crystal_hz5,
- crystal_phimin5, crystal_phimax5); //its size
- G4UnionSolid* solidTippedCone5 =
- new G4UnionSolid("TippedCone5",
- solidTip5,
- solidCone5,
- tip_trans5);
- G4SubtractionSolid* solidIntermediate5 =
- new G4SubtractionSolid("Intermediate5",
- solidTippedCone5,
- solidSubtractionBox5,
- firstBox_trans5);
- G4SubtractionSolid* solidCrystal5 =
- new G4SubtractionSolid("Crystal5",
- solidIntermediate5,
- solidSecondSubtractionBox5,
- secondBox_trans5);
-
- G4LogicalVolume* logicCrystal5 =
- new G4LogicalVolume(solidCrystal5, //its solid
- CsI, //its material
- "CsI Detector5"); //its name
- logicCrystal5->SetVisAttributes(crystalVisAtt);
- logicCrystal5->SetSensitiveDetector(m_MicroballScorer);
-
-
- //
- // Light Guide
- //
- G4double lightGuide_px5 = 10*mm;
- G4double lightGuide_py5 = 10*mm;
- G4double lightGuide_pz5 = lgThickness5;
- G4Box* solidLightGuide5 =
- new G4Box("LightGuide5", //its name
- 0.5*lightGuide_px5,
- 0.5*lightGuide_py5,
- 0.5*lightGuide_pz5); //its size
-
- G4LogicalVolume* logicLightGuide5 =
- new G4LogicalVolume(solidLightGuide5, //its solid
- glass, //its material
- "LightGuide5"); //its name
- logicLightGuide5->SetVisAttributes(lightGuideVisAtt);
-
-
- for(int i = 1; i <= detNum5; i++)
- {
- G4RotationMatrix crystal_rotm = G4RotationMatrix();
- G4ThreeVector d0 = G4ThreeVector(distanceFromTarget5*sin(coneangle5)*cos(0.5*360*deg/detNum5),
- distanceFromTarget5*sin(coneangle5)*sin(0.5*360*deg/detNum5),
- distanceFromTarget5*cos(coneangle5));
- G4ThreeVector df = G4ThreeVector(distanceFromTarget5*sin(theta5)*sin((i-1)*360*deg/detNum5+.001*deg/*+0.5*360*deg/detNum5*/),
- distanceFromTarget5*sin(theta5)*cos((i-1)*360*deg/detNum5+.001*deg/*+0.5*360*deg/detNum5*/),
- -distanceFromTarget5*cos(theta5));
- G4ThreeVector axis = d0.cross(df);
- G4double ax = axis.x();
- G4double ay = axis.y();
- G4double az = axis.z();
- G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
- G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
- G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
- G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
- G4RotationMatrix abc = G4RotationMatrix();
- abc.setRows(a,b,c);
- G4ThreeVector unitdf = df/df.mag();
- G4double udfx = unitdf.x();
- G4double udfy = unitdf.y();
- G4double udfz = unitdf.z();
- G4double k = 180.*deg;
- G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
- G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
- G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
- G4RotationMatrix def = G4RotationMatrix();
- def.setRows(d,e,f);
- crystal_rotm=def*abc;
- if (m_Flip == 0){
- crystal_rotm.rotateY(180*deg);
- }
- crystal_rotm.rotateZ(180*deg);
- G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
- G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
- G4RotationMatrix lg_rotm = G4RotationMatrix();
- G4ThreeVector lg_Axis = df.cross(z5);
- lg_Axis = lg_Axis/lg_Axis.mag();
- lg_Axis.rotateZ(180*deg);
- G4double ulgx = lg_Axis.x();
- G4double ulgy = lg_Axis.y();
- G4double ulgz = lg_Axis.z();
- G4ThreeVector p = G4ThreeVector(cos(theta5)+pow(ulgx,2)*(1-cos(theta5)), ulgx*ulgy*(1-cos(theta5))-ulgz*sin(theta5), ulgx*ulgz*(1-cos(theta5))+ulgy*sin(theta5));
- G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta5))+ulgz*sin(theta5), cos(theta5)+pow(ulgy,2)*(1-cos(theta5)), ulgy*ulgz*(1-cos(theta5))-ulgx*sin(theta5));
- G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta5))-ulgy*sin(theta5), ulgz*ulgy*(1-cos(theta5))+ulgx*sin(theta5), cos(theta5)+pow(ulgz,2)*(1-cos(theta5)));
- G4RotationMatrix pqr = G4RotationMatrix();
- pqr.setRows(p,q,r);
- lg_rotm.rotateZ((i-1)*360*deg/detNum5);
- lg_rotm.rotateX(180*deg);
- lg_rotm=pqr*lg_rotm;
- G4ThreeVector lg_pos = (distanceFromTarget5+detThickness5+0.5*lgThickness5)/df.mag()*df;
- lg_pos.rotateZ(180*deg);
- if (m_Flip == 0){
- lg_pos.rotateY(180*deg);
- lg_rotm.rotateY(180*deg);
- }
- G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
- G4RotationMatrix delrin_rotm = G4RotationMatrix();
- G4ThreeVector w = G4ThreeVector(sin(theta5)*sin((i-1)*360*deg/detNum5+.001*deg), sin(theta5)*cos((i-1)*360*deg/detNum5+.001*deg), cos(theta5));
- G4ThreeVector delrin_Axis = w.cross(z5);
- delrin_Axis.rotateX(180*deg);
- delrin_Axis = delrin_Axis/delrin_Axis.mag();
- G4double udx = delrin_Axis.x();
- G4double udy = delrin_Axis.y();
- G4double udz = delrin_Axis.z();
- G4double delAng = 90*deg+theta5;
- G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
- G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
- G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
- G4RotationMatrix pqrdel = G4RotationMatrix();
- pqrdel.setRows(pdel,qdel,rdel);
- delrin_rotm.rotateZ((i-1)*360*deg/detNum5+.001*deg);
- delrin_rotm=pqrdel*delrin_rotm;
- delrin_rotm.rotateZ(0*deg);
- G4ThreeVector delrin_pos = (distanceFromTarget5+detThickness5+lgThickness5+delrinA5/2+.0004*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
- delrin_pos.rotateZ(180*deg);
- delrin_pos.rotateY(180*deg);
- if (m_Flip == 1){
- delrin_pos.rotateY(180*deg);
- delrin_rotm.rotateY(180*deg);
- }
- G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
- //if(i != 1){
- bool placeCrystal = true;
- for (unsigned int i2=0; i2 < m_Array.size(); i2++){
- if (40 < m_Array[i2] && m_Array[i2] < 55){
- if (m_Array[i2] == 40+i){
- placeCrystal = false;
- }
- }
- }
- if (placeCrystal){
- if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
- logicCrystal5, //its logical volume
- "CsI Detector5", //its name
- world, //its mother volume
- false, //no boolean operation
- 40+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
- logicLightGuide5, //its logical volume
- "LightGuide5", //its name
- world, //its mother volume
- false, //no boolean operation
- 40+i, //copy number
- checkOverlaps); //overlaps checking
- }
- //}
- if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
- logicDelrin5, //its logical volume
- "Delrin5", //its name
- world, //its mother volume
- false, //no boolean operation
- 40+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- }}
-
- if(m_Ring6){
- // Ring 6 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ this ring is weird.
- G4int detNum6 = 14;
- G4double distanceFromTargetBack6 = 50.*mm;
- G4double theta6 = 90.0*deg;
- G4double halfTheta6 = 10.0*deg;// -0.1*deg;
- G4double lgThickness6 = 7.0*mm;
- G4double detThickness6 = 5.2*mm;
- G4double distanceFromTarget6 = distanceFromTargetBack6 - detThickness6;
-
- //G4double distance6 = distanceFromTarget6*sin(theta6); //this gives the distance from the beam axis.
-
- //
- // Delrin Ring
- //
- G4double delrinA6 = 5*mm;
- G4double delrinB6 = 10*mm;
- G4double fdelrinHalfAngle6 = atan(delrinB6/2/(distanceFromTarget6+detThickness6+lgThickness6));
- G4double firs6 = pow(pow(distanceFromTarget6+detThickness6+lgThickness6,2)+pow(delrinB6/2,2),0.5)*sin(theta6-fdelrinHalfAngle6);
- G4double firb6 = pow(pow(distanceFromTarget6+detThickness6+lgThickness6,2)+pow(delrinB6/2,2),0.5)*sin(theta6+fdelrinHalfAngle6);
- G4double bdelrinHalfAngle6 = atan(delrinB6/2/(distanceFromTarget6+detThickness6+lgThickness6+delrinA6));
- G4double birs6 = pow(pow(distanceFromTarget6+detThickness6+lgThickness6+delrinA6,2)+pow(delrinB6/2,2),0.5)*sin(theta6-bdelrinHalfAngle6);
- G4double birb6 = pow(pow(distanceFromTarget6+detThickness6+lgThickness6+delrinA6,2)+pow(delrinB6/2,2),0.5)*sin(theta6+bdelrinHalfAngle6);
-
- G4double delrin_dz6 = delrinB6/2;
- G4double delrin_theta6 = 0;
- G4double delrin_phi6 = 0;
- G4double delrin_dyab6 = delrinA6/2;
- G4double delrin_dxa6 = firs6*tan(180*deg/detNum6);
- G4double delrin_dxb6 = birs6*tan(180*deg/detNum6);
- G4double delrin_dycd6 = delrinA6/2;
- G4double delrin_dxc6 = firb6*tan(180*deg/detNum6);
- G4double delrin_dxd6 = birb6*tan(180*deg/detNum6);
- G4double delrin_alpab6 = 0;
- G4double delrin_alpcd6 = delrin_alpab6;
-
-
- G4ThreeVector delrin_pos6 = G4ThreeVector(0,0,distanceFromTarget6*cos(theta6));
-
- G4Trap* solidDelrin6 =
- new G4Trap("Delrin6", //its name
- delrin_dz6,
- delrin_theta6, delrin_phi6,
- delrin_dyab6,
- delrin_dxa6, delrin_dxb6,
- delrin_alpab6,
- delrin_dycd6,
- delrin_dxc6, delrin_dxd6,
- delrin_alpcd6); //its size
-
- G4LogicalVolume* logicDelrin6 =
- new G4LogicalVolume(solidDelrin6, //its solid
- delrin, //its material
- "Delrin6"); //its name
- logicDelrin6->SetVisAttributes(delrinVisAtt);
-
-
- /*
- //
- // CsI Detector for deletion
- //
- G4double crystal_rmina6 = distance6/cos(halfTheta6);
- G4double crystal_rmaxa6 = distance6/cos(halfTheta6)+2*distance6*tan(halfTheta6);
- G4double crystal_rminb6 = (distance6+detThickness6)/cos(halfTheta6);
- G4double crystal_rmaxb6 = (distance6+detThickness6)/cos(halfTheta6)+2*(distance6+detThickness6)*tan(halfTheta6);
- G4double crystal_hz6 = 0.5*pow(pow(detThickness6,2)+pow((crystal_rminb6+crystal_rmaxb6-crystal_rmina6-crystal_rmaxa6)/2,2),0.5);
- //G4double crystal_hz6 = 0.5*detThickness6;
- G4double crystal_phimin6 = 0.*deg, crystal_phimax6 = 360.*deg/detNum6;
-
-
- G4Cons* solidCrystal6 =
- new G4Cons("Crystal6", //its name
- crystal_rmina6, crystal_rmaxa6,
- crystal_rminb6, crystal_rmaxb6,
- crystal_hz6,
- crystal_phimin6, crystal_phimax6); //its size
-
- G4LogicalVolume* logicCrystal6 =
- new G4LogicalVolume(solidCrystal6, //its solid
- CsI, //its material
- "CsI Detector6"); //its name
- logicCrystal6->SetVisAttributes(crystalVisAtt);
- */
-
- G4double crystal_dxa6 = distanceFromTarget6*tan(halfTheta6);
- G4double crystal_dxb6 = (distanceFromTarget6+detThickness6)*tan(halfTheta6);
- G4double crystal_dya6 = distanceFromTarget6*tan(0.5*360*deg/detNum6);
- G4double crystal_dyb6 = (distanceFromTarget6+detThickness6)*tan(0.5*360*deg/detNum6);
- G4double crystal_dz = 0.5*detThickness6;
-
- G4Trd* solidCrystal6 =
- new G4Trd("Crystal6", //its name
- crystal_dxa6, crystal_dxb6,
- crystal_dya6, crystal_dyb6,
- crystal_dz); //its size
- G4LogicalVolume* logicCrystal6 =
- new G4LogicalVolume(solidCrystal6, //its solid
- CsI, //its material
- "CsI Detector6"); //its name
- logicCrystal6->SetVisAttributes(crystalVisAtt);
- logicCrystal6->SetSensitiveDetector(m_MicroballScorer);
- //
- // Light Guide
- //
- G4double lightGuide_px6 = 10*mm;
- G4double lightGuide_py6 = 10*mm;
- G4double lightGuide_pz6 = lgThickness6;
- G4Box* solidLightGuide6 =
- new G4Box("LightGuide6", //its name
- 0.5*lightGuide_px6,
- 0.5*lightGuide_py6,
- 0.5*lightGuide_pz6); //its size
-
- G4LogicalVolume* logicLightGuide6 =
- new G4LogicalVolume(solidLightGuide6, //its solid
- glass, //its material
- "LightGuide6"); //its name
- logicLightGuide6->SetVisAttributes(lightGuideVisAtt);
-
-
- for(int i = 1; i <= detNum6; i++)
- {
- G4RotationMatrix crystal_rotm = G4RotationMatrix();
- /*
- G4RotationMatrix abc6 = G4RotationMatrix();
- G4RotationMatrix def6 = G4RotationMatrix();
- G4ThreeVector a6 = G4ThreeVector(pow(sin(i*360*deg/detNum6),2), -sin(i*360*deg/detNum6)*cos(i*360*deg/detNum6), cos(i*360*deg/detNum6));
- G4ThreeVector b6 = G4ThreeVector(-sin(i*360*deg/detNum6)*cos(i*360*deg/detNum6), pow(cos(i*360*deg/detNum6),2), sin(i*360*deg/detNum6));
- G4ThreeVector c6 = G4ThreeVector(-cos(i*360*deg/detNum6), -sin(i*360*deg/detNum6), 0);
- abc6.setRows(a6,b6,c6);
- G4double k= (i-1)*360*deg/detNum6+0.5*360*deg/detNum6;
- G4ThreeVector d6 = G4ThreeVector(cos(k)+pow(cos(i*360*deg/detNum6),2)*(1-cos(k)),
- cos(i*360*deg/detNum6)*sin(i*360*deg/detNum6)*(1-cos(k)),
- sin(i*360*deg/detNum6)*sin(k));
- G4ThreeVector e6 = G4ThreeVector(cos(i*360*deg/detNum6)*sin(i*360*deg/detNum6)*(1-cos(k)),
- cos(k)+pow(sin(i*360*deg/detNum6),2)*(1-cos(k)),
- -cos(i*360*deg/detNum6)*sin(k));
- G4ThreeVector f6 = G4ThreeVector(-sin(i*360*deg/detNum6)*sin(k),
- cos(i*360*deg/detNum6)*sin(k),
- cos(k));
- def6.setRows(d6,e6,f6);
- crystal_rotm = def6*abc6;
- */
- G4ThreeVector z6 = G4ThreeVector(0,0,1);
- G4ThreeVector df6 = G4ThreeVector(cos((i-1)*360*deg/detNum6+0.5*360*deg/detNum6),
- sin((i-1)*360*deg/detNum6+0.5*360*deg/detNum6),
- 0);
- G4ThreeVector unitAxis6 = z6.cross(df6);
- unitAxis6 = unitAxis6/unitAxis6.mag();
- G4double ux6 = unitAxis6.x();
- G4double uy6 = unitAxis6.y();
- G4double uz6 = unitAxis6.z();
- G4double angle6 = acos(z6.dot(df6)/(z6.mag()*df6.mag()));
- G4ThreeVector a6 = G4ThreeVector(cos(angle6)+pow(ux6,2)*(1-cos(angle6)), ux6*uy6*(1-cos(angle6))-uz6*sin(angle6), ux6*uz6*(1-cos(angle6))+uy6*sin(angle6));
- G4ThreeVector b6 = G4ThreeVector(uy6*ux6*(1-cos(angle6))+uz6*sin(angle6), cos(angle6)+pow(uy6,2)*(1-cos(angle6)), uy6*uz6*(1-cos(angle6))-ux6*sin(angle6));
- G4ThreeVector c6 = G4ThreeVector(uz6*ux6*(1-cos(angle6))-uy6*sin(angle6), uz6*uy6*(1-cos(angle6))+ux6*sin(angle6), cos(angle6)+pow(uz6,2)*(1-cos(angle6)));
- G4RotationMatrix abc6 = G4RotationMatrix();
- abc6.setRows(a6,b6,c6);
- crystal_rotm.rotateZ((i-1)*360*deg/detNum6+0.5*360*deg/detNum6);
- crystal_rotm=abc6*crystal_rotm;
- crystal_rotm.rotateZ(0*deg-4*360/14*deg);
- G4ThreeVector crystal_pos = G4ThreeVector((distanceFromTarget6+0.5*detThickness6)*cos((i-1)*360*deg/detNum6+0.5*360*deg/detNum6),
- (distanceFromTarget6+0.5*detThickness6)*sin((i-1)*360*deg/detNum6+0.5*360*deg/detNum6),
- 0)+delrin_pos6;
- crystal_pos.rotateZ(0*deg-4*360/14*deg);
- if (m_Flip == 1){
- crystal_pos.setX(-crystal_pos.x());
- crystal_rotm.rotateY(180*deg);
- }
- G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
- G4RotationMatrix lg_rotm = G4RotationMatrix();
- G4ThreeVector df = G4ThreeVector(distanceFromTarget6*sin(theta6)*sin((i-1)*360*deg/detNum6/*+0.5*360*deg/detNum6*/),
- distanceFromTarget6*sin(theta6)*cos((i-1)*360*deg/detNum6/*+0.5*360*deg/detNum6*/),
- -distanceFromTarget6*cos(theta6));
- G4ThreeVector lg_Axis = df.cross(z6);
- lg_Axis = lg_Axis/lg_Axis.mag();
- lg_Axis.rotateZ(180*deg);
- G4double ulgx = lg_Axis.x();
- G4double ulgy = lg_Axis.y();
- G4double ulgz = lg_Axis.z();
- G4ThreeVector p = G4ThreeVector(cos(theta6)+pow(ulgx,2)*(1-cos(theta6)), ulgx*ulgy*(1-cos(theta6))-ulgz*sin(theta6), ulgx*ulgz*(1-cos(theta6))+ulgy*sin(theta6));
- G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta6))+ulgz*sin(theta6), cos(theta6)+pow(ulgy,2)*(1-cos(theta6)), ulgy*ulgz*(1-cos(theta6))-ulgx*sin(theta6));
- G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta6))-ulgy*sin(theta6), ulgz*ulgy*(1-cos(theta6))+ulgx*sin(theta6), cos(theta6)+pow(ulgz,2)*(1-cos(theta6)));
- G4RotationMatrix pqr = G4RotationMatrix();
- pqr.setRows(p,q,r);
- lg_rotm.rotateZ((i-1)*360*deg/detNum6);
- lg_rotm.rotateX(180*deg);
- lg_rotm=pqr*lg_rotm;
- G4ThreeVector lg_pos = (distanceFromTarget6+detThickness6+0.5*lgThickness6+.09*mm)/df.mag()*df; //the .09 mm is a fudge factor to prevent overlapping.
- lg_pos.rotateZ(180*deg);
- if (m_Flip == 0){
- lg_pos.rotateY(180*deg);
- lg_rotm.rotateY(180*deg);
- }
- G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
- G4RotationMatrix delrin_rotm = G4RotationMatrix();
- G4ThreeVector w = G4ThreeVector(sin(theta6)*sin((i-1)*360*deg/detNum6+.001*deg), sin(theta6)*cos((i-1)*360*deg/detNum6+.001*deg), cos(theta6));
- G4ThreeVector delrin_Axis = w.cross(z6);
- delrin_Axis = delrin_Axis/delrin_Axis.mag();
- G4double udx = delrin_Axis.x();
- G4double udy = delrin_Axis.y();
- G4double udz = delrin_Axis.z();
- G4double delAng = 0*deg;//90*deg+theta6;
- G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
- G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
- G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
- G4RotationMatrix pqrdel = G4RotationMatrix();
- pqrdel.setRows(pdel,qdel,rdel);
- delrin_rotm.rotateZ((i-1)*360*deg/detNum6+.001*deg);
- delrin_rotm=pqrdel*delrin_rotm;
- delrin_rotm.rotateZ(180*deg);
- G4ThreeVector delrin_pos = (distanceFromTarget6+detThickness6+lgThickness6+delrinA6/2+.0904*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
- delrin_pos.rotateZ(180*deg);
- delrin_pos.rotateY(180*deg);
- if (m_Flip == 1){
- delrin_pos.rotateY(180*deg);
- delrin_rotm.rotateY(180*deg);
- }
- G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
- bool placeCrystal = true;
- for (unsigned int i2=0; i2 < m_Array.size(); i2++){
- /*if(54 < m_Array[i2] && m_Array[i2] < 58){
- if (55+57-m_Array[i2] == 54+i){
- placeCrystal = false;
- }
- }
- if(57 < m_Array[i2] && m_Array[i2] < 69){
- if (58+68-m_Array[i2] == 54+i){
- placeCrystal = false;
- }
- }*/
- if (54 < m_Array[i2] && m_Array[i2] < 69){
- if (m_Array[i2] == 54+i){
- placeCrystal = false;
- }
- }
- }
- if (placeCrystal){
- if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
- logicCrystal6, //its logical volume
- "CsI Detector6", //its name
- world, //its mother volume
- false, //no boolean operation
- 54+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
- logicLightGuide6, //its logical volume
- "LightGuide6", //its name
- world, //its mother volume
- false, //no boolean operation
- 54+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
- logicDelrin6, //its logical volume
- "Delrin6", //its name
- world, //its mother volume
- false, //no boolean operation
- 54+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- }}
-
- if(m_Ring7){
- // Ring 7 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ lg pseudofixed
- G4int detNum7 = 12;
- G4double distanceFromTargetBack7 = 45.*mm;
- G4double theta7 = 111.5*deg;
- G4double halfTheta7 = 11.5*deg;//-0.1*deg; //fudge factor
- G4double lgThickness7 = 7.0*mm;
- G4double detThickness7 = 4.1*mm;
- G4double distanceFromTarget7 = distanceFromTargetBack7 - detThickness7;
-
- //G4double distance7 = distanceFromTarget7*sin(theta7); //this gives the distance from the beam axis.
-
- /*
- //
- // Delrin Ring (for deletion)
- //
- G4double delrin_rmina7 = distance7+detThickness7+lgThickness7, delrin_rmaxa7 = delrin_rmina7+5*mm;
- G4double delrin_hz7 = 5*mm; //distance7*tan(halfTheta7);
- G4double delrin_phimin7 = 0.*deg, delrin_phimax7 = 360.*deg;
- G4ThreeVector delrin_pos7 = G4ThreeVector(0,0,distanceFromTarget7*cos(theta7)); //G4ThreeVector(0,0,distance7+lgThickness7+detThickness7*sin(theta7));
-
- G4Tubs* solidDelrin7 =
- new G4Tubs("Delrin7", //its name
- delrin_rmina7, delrin_rmaxa7,
- delrin_hz7,
- delrin_phimin7, delrin_phimax7); //its size
-
- G4LogicalVolume* logicDelrin7 =
- new G4LogicalVolume(solidDelrin7, //its solid
- delrin, //its material
- "Delrin7"); //its name
- logicDelrin7->SetVisAttributes(delrinVisAtt);
-
- if(delrinBool) {new G4PVPlacement(0, //no rotation
- delrin_pos7, //its position
- logicDelrin7, //its logical volume
- "Delrin7", //its name
- world, //its mother volume
- false, //no boolean operation
- 0, //copy number
- checkOverlaps); //overlaps checking
- }
- */
- //
- // Delrin Ring
- //
- G4double delrinA7 = 5*mm;
- G4double delrinB7 = 10*mm;
- G4double fdelrinHalfAngle7 = atan(delrinB7/2/(distanceFromTarget7+detThickness7+lgThickness7));
- G4double firs7 = pow(pow(distanceFromTarget7+detThickness7+lgThickness7,2)+pow(delrinB7/2,2),0.5)*sin(theta7-fdelrinHalfAngle7);
- G4double firb7 = pow(pow(distanceFromTarget7+detThickness7+lgThickness7,2)+pow(delrinB7/2,2),0.5)*sin(theta7+fdelrinHalfAngle7);
- G4double bdelrinHalfAngle7 = atan(delrinB7/2/(distanceFromTarget7+detThickness7+lgThickness7+delrinA7));
- G4double birs7 = pow(pow(distanceFromTarget7+detThickness7+lgThickness7+delrinA7,2)+pow(delrinB7/2,2),0.5)*sin(theta7-bdelrinHalfAngle7);
- G4double birb7 = pow(pow(distanceFromTarget7+detThickness7+lgThickness7+delrinA7,2)+pow(delrinB7/2,2),0.5)*sin(theta7+bdelrinHalfAngle7);
-
- G4double delrin_dz7 = delrinB7/2;
- G4double delrin_theta7 = 0;
- G4double delrin_phi7 = 0;
- G4double delrin_dyab7 = delrinA7/2;
- G4double delrin_dxa7 = firs7*tan(180*deg/detNum7);
- G4double delrin_dxb7 = birs7*tan(180*deg/detNum7);
- G4double delrin_dycd7 = delrinA7/2;
- G4double delrin_dxc7 = firb7*tan(180*deg/detNum7);
- G4double delrin_dxd7 = birb7*tan(180*deg/detNum7);
- G4double delrin_alpab7 = 0;
- G4double delrin_alpcd7 = delrin_alpab7;
-
- G4ThreeVector delrin_pos7 = G4ThreeVector(0,0,distanceFromTarget7*cos(theta7));
-
- G4Trap* solidDelrin7 =
- new G4Trap("Delrin7", //its name
- delrin_dz7,
- delrin_theta7, delrin_phi7,
- delrin_dyab7,
- delrin_dxa7, delrin_dxb7,
- delrin_alpab7,
- delrin_dycd7,
- delrin_dxc7, delrin_dxd7,
- delrin_alpcd7); //its size
-
- G4LogicalVolume* logicDelrin7 =
- new G4LogicalVolume(solidDelrin7, //its solid
- delrin, //its material
- "Delrin7"); //its name
- logicDelrin7->SetVisAttributes(delrinVisAtt);
-
- //
- // CsI Detector
- //
- G4double coneheight7 = 0.6*distanceFromTarget7;
- G4double flatheight7 = coneheight7 -0.01*mm;
- G4double coneangle7 = theta7;
- G4double crystal_rmina7 = -(coneheight7-flatheight7)*tan(coneangle7+halfTheta7);
- G4double crystal_rmaxa7 = -(coneheight7-flatheight7)*tan(coneangle7-halfTheta7);
- G4double crystal_rminb7 = -coneheight7*tan(coneangle7+halfTheta7);
- G4double crystal_rmaxb7 = -coneheight7*tan(coneangle7-halfTheta7);
- G4double crystal_hz7 = 0.5*flatheight7;//(crystal_rmaxb7-crystal_rmaxa7)/crystal_rmaxb7*coneheight7;
- G4double crystal_phimin7 = 0.*deg, crystal_phimax7 = 360.*deg/detNum7;
- G4RotationMatrix tip_rotm7 = G4RotationMatrix();
- G4ThreeVector tip_pos7 = G4ThreeVector(0,0,0.5*flatheight7+(coneheight7-flatheight7)); //last term is a fudge
- G4Transform3D tip_trans7 = G4Transform3D(tip_rotm7, tip_pos7);
- G4ThreeVector z7 = G4ThreeVector(0,0,1);
- G4ThreeVector d07 = G4ThreeVector(distanceFromTarget7*sin(coneangle7)*cos(0.5*360*deg/detNum7),
- distanceFromTarget7*sin(coneangle7)*sin(0.5*360*deg/detNum7),
- -distanceFromTarget7*cos(coneangle7));
- G4ThreeVector unitAxis7 = z7.cross(d07);
- unitAxis7 = unitAxis7/unitAxis7.mag();
- G4double ux7 = unitAxis7.x();
- G4double uy7 = unitAxis7.y();
- G4double uz7 = unitAxis7.z();
- G4ThreeVector top7 = G4ThreeVector(cos(-coneangle7)+pow(ux7,2)*(1-cos(-coneangle7)), ux7*uy7*(1-cos(-coneangle7))-uz7*sin(-coneangle7), ux7*uz7*(1-cos(-coneangle7))+uy7*sin(-coneangle7));
- G4ThreeVector mid7 = G4ThreeVector(uy7*ux7*(1-cos(-coneangle7))+uz7*sin(-coneangle7), cos(-coneangle7)+pow(uy7,2)*(1-cos(-coneangle7)), uy7*uz7*(1-cos(-coneangle7))-ux7*sin(-coneangle7));
- G4ThreeVector bot7 = G4ThreeVector(uz7*ux7*(1-cos(-coneangle7))-uy7*sin(-coneangle7), uz7*uy7*(1-cos(-coneangle7))+ux7*sin(-coneangle7), cos(-coneangle7)+pow(uz7,2)*(1-cos(-coneangle7)));
- G4RotationMatrix firstBox_rotm7 = G4RotationMatrix();
- firstBox_rotm7.setRows(top7,mid7,bot7);
- G4ThreeVector firstBox_pos7 = G4ThreeVector(0,0,0);
- G4Transform3D firstBox_trans7 = G4Transform3D(firstBox_rotm7, firstBox_pos7);
- G4RotationMatrix secondBox_rotm7 = G4RotationMatrix();
- secondBox_rotm7.setRows(top7,mid7,bot7);
- G4ThreeVector secondBox_pos7 = (3*distanceFromTarget7+detThickness7)/distanceFromTarget7*d07;
- G4Transform3D secondBox_trans7 = G4Transform3D(secondBox_rotm7, secondBox_pos7);
-
- G4Orb* solidTip7 =
- new G4Orb("tip7",
- .0001*mm);
- G4Box* solidSubtractionBox7 =
- new G4Box("SubtractionBox7", //its name
- distanceFromTarget7,
- distanceFromTarget7,
- distanceFromTarget7); //its size
- G4Box* solidSecondSubtractionBox7 =
- new G4Box("SecondSubtractionBox7", //its name
- 2*distanceFromTarget7,
- 2*distanceFromTarget7,
- 2*distanceFromTarget7); //its size
- G4Cons* solidCone7 =
- new G4Cons("Cone7", //its name
- crystal_rmina7, crystal_rmaxa7,
- crystal_rminb7, crystal_rmaxb7,
- crystal_hz7,
- crystal_phimin7, crystal_phimax7); //its size
- G4UnionSolid* solidTippedCone7 =
- new G4UnionSolid("TippedCone7",
- solidTip7,
- solidCone7,
- tip_trans7);
- G4SubtractionSolid* solidIntermediate7 =
- new G4SubtractionSolid("Intermediate7",
- solidTippedCone7,
- solidSubtractionBox7,
- firstBox_trans7);
- G4SubtractionSolid* solidCrystal7 =
- new G4SubtractionSolid("Crystal7",
- solidIntermediate7,
- solidSecondSubtractionBox7,
- secondBox_trans7);
-
- G4LogicalVolume* logicCrystal7 =
- new G4LogicalVolume(solidCrystal7, //its solid
- CsI, //its material
- "CsI Detector7"); //its name
- logicCrystal7->SetVisAttributes(crystalVisAtt);
- logicCrystal7->SetSensitiveDetector(m_MicroballScorer);
- //
- // Light Guide
- //
- G4double lightGuide_px7 = 10*mm;
- G4double lightGuide_py7 = 10*mm;
- G4double lightGuide_pz7 = lgThickness7;
- G4Box* solidLightGuide7 =
- new G4Box("LightGuide7", //its name
- 0.5*lightGuide_px7,
- 0.5*lightGuide_py7,
- 0.5*lightGuide_pz7); //its size
-
- G4LogicalVolume* logicLightGuide7 =
- new G4LogicalVolume(solidLightGuide7, //its solid
- glass, //its material
- "LightGuide7"); //its name
- logicLightGuide7->SetVisAttributes(lightGuideVisAtt);
-
-
- for(int i = 1; i <= detNum7; i++)
- {
- G4RotationMatrix crystal_rotm = G4RotationMatrix();
- G4ThreeVector d0 = G4ThreeVector(distanceFromTarget7*sin(coneangle7)*cos(0.5*360*deg/detNum7),
- distanceFromTarget7*sin(coneangle7)*sin(0.5*360*deg/detNum7),
- distanceFromTarget7*cos(coneangle7));
- G4ThreeVector df = G4ThreeVector(distanceFromTarget7*sin(theta7)*sin((i-1)*360*deg/detNum7+.001*deg/*+0.5*360*deg/detNum7*/),
- distanceFromTarget7*sin(theta7)*cos((i-1)*360*deg/detNum7+.001*deg/*+0.5*360*deg/detNum7*/),
- -distanceFromTarget7*cos(theta7));
- df.setX(-df.x());
- G4ThreeVector axis = d0.cross(df);
- G4double ax = axis.x();
- G4double ay = axis.y();
- G4double az = axis.z();
- G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
- G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
- G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
- G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
- G4RotationMatrix abc = G4RotationMatrix();
- abc.setRows(a,b,c);
- G4ThreeVector unitdf = df/df.mag();
- G4double udfx = unitdf.x();
- G4double udfy = unitdf.y();
- G4double udfz = unitdf.z();
- G4double k = 180.*deg;
- G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
- G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
- G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
- G4RotationMatrix def = G4RotationMatrix();
- def.setRows(d,e,f);
- crystal_rotm=def*abc;
- if (m_Flip == 1){
- crystal_rotm.rotateY(180*deg);
- }
- crystal_rotm.rotateZ(180*deg);
- G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
- G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
- df.setX(-df.x());
- G4RotationMatrix lg_rotm = G4RotationMatrix();
- G4ThreeVector lg_Axis = df.cross(z7);
- lg_Axis = lg_Axis/lg_Axis.mag();
- lg_Axis.rotateZ(180*deg);
- G4double ulgx = lg_Axis.x();
- G4double ulgy = lg_Axis.y();
- G4double ulgz = lg_Axis.z();
- G4double lg_ang = theta7;
- G4ThreeVector p = G4ThreeVector(cos(lg_ang)+pow(ulgx,2)*(1-cos(lg_ang)), ulgx*ulgy*(1-cos(lg_ang))-ulgz*sin(lg_ang), ulgx*ulgz*(1-cos(lg_ang))+ulgy*sin(lg_ang));
- G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(lg_ang))+ulgz*sin(lg_ang), cos(lg_ang)+pow(ulgy,2)*(1-cos(lg_ang)), ulgy*ulgz*(1-cos(lg_ang))-ulgx*sin(lg_ang));
- G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(lg_ang))-ulgy*sin(lg_ang), ulgz*ulgy*(1-cos(lg_ang))+ulgx*sin(lg_ang), cos(lg_ang)+pow(ulgz,2)*(1-cos(lg_ang)));
- G4RotationMatrix pqr = G4RotationMatrix();
- pqr.setRows(p,q,r);
- lg_rotm.rotateZ((i-1)*360*deg/detNum7);
- lg_rotm.rotateX(180*deg);
- lg_rotm=pqr*lg_rotm;
- G4ThreeVector lg_pos = (distanceFromTarget7+detThickness7+0.5*lgThickness7+.0003*mm)/df.mag()*df;
- lg_pos.rotateZ(180*deg);
- if (m_Flip == 0){
- lg_pos.rotateY(180*deg);
- lg_rotm.rotateY(180*deg);
- }
- G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
- G4RotationMatrix delrin_rotm = G4RotationMatrix();
- G4ThreeVector w = G4ThreeVector(sin(theta7)*sin((i-1)*360*deg/detNum7+.001*deg), sin(theta7)*cos((i-1)*360*deg/detNum7+.001*deg), cos(theta7));
- G4ThreeVector delrin_Axis = w.cross(z7);
- delrin_Axis.rotateX(180*deg);
- delrin_Axis = delrin_Axis/delrin_Axis.mag();
- G4double udx = delrin_Axis.x();
- G4double udy = delrin_Axis.y();
- G4double udz = delrin_Axis.z();
- G4double delAng = -90*deg+theta7;
- G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
- G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
- G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
- G4RotationMatrix pqrdel = G4RotationMatrix();
- pqrdel.setRows(pdel,qdel,rdel);
- delrin_rotm.rotateZ((-i+1)*360*deg/detNum7+.001*deg);
- delrin_rotm.rotateX(180*deg);
- delrin_rotm=pqrdel*delrin_rotm;
- delrin_rotm.rotateZ(0*deg);
- G4ThreeVector delrin_pos = (distanceFromTarget7+detThickness7+lgThickness7+delrinA7/2+.0005*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
- delrin_pos.rotateZ(180*deg);
- delrin_pos.rotateY(180*deg);
- if (m_Flip == 1){
- delrin_pos.rotateY(180*deg);
- delrin_rotm.rotateY(180*deg);
- }
- G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
- bool placeCrystal = true;
- for (unsigned int i2=0; i2 < m_Array.size(); i2++){
- if (68 < m_Array[i2] && m_Array[i2] < 81){
- /*if (m_Array[i2] == 69 && 68+i == 80){
- placeCrystal = false;
- }
- else if(68+m_Array[i2]%69 == 68+i){
- placeCrystal = false;
- }
- if (m_Array[i2] == 68+i){
- placeDel = false;
- }*/
- if (m_Array[i2] == 68+i){
- placeCrystal = false;
- }
- }
- }
- if (placeCrystal){
- if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
- logicCrystal7, //its logical volume
- "CsI Detector7", //its name
- world, //its mother volume
- false, //no boolean operation
- 68+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- if(placeCrystal){
- if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
- logicLightGuide7, //its logical volume
- "LightGuide7", //its name
- world, //its mother volume
- false, //no boolean operation
- 68+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
- logicDelrin7, //its logical volume
- "Delrin7", //its name
- world, //its mother volume
- false, //no boolean operation
- 68+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- }}
-
-
- if(m_Ring8) {
- // Ring 8 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
- G4int detNum8 = 10;
- G4double distanceFromTargetBack8 = 47*mm; //Its really 47 mm from the target, but at 45.9 we avoid intersection the detectors in ring 9
- G4double theta8 = 135.0*deg;
- G4double halfTheta8 = 12.0*deg;// -0.1*deg; //fudge factor
- G4double lgThickness8 = 7.5*mm;
- G4double detThickness8 = 3.6*mm;
- G4double distanceFromTarget8 = distanceFromTargetBack8 - detThickness8;
-
- //G4double distance8 = distanceFromTarget8*sin(theta8); //this gives the distance from the beam axis.
- /*
- //
- // Delrin Ring (for deletion)
- //
- G4double delrin_rmina8 = distance8+detThickness8+lgThickness8, delrin_rmaxa8 = delrin_rmina8+5*mm;
- G4double delrin_hz8 = 5*mm; //distance8*tan(halfTheta8);
- G4double delrin_phimin8 = 0.*deg, delrin_phimax8 = 360.*deg;
- G4ThreeVector delrin_pos8 = G4ThreeVector(0,0,distanceFromTarget8*cos(theta8)); //G4ThreeVector(0,0,distance8+lgThickness8+detThickness8*sin(theta8));
-
- G4Tubs* solidDelrin8 =
- new G4Tubs("Delrin8", //its name
- delrin_rmina8, delrin_rmaxa8,
- delrin_hz8,
- delrin_phimin8, delrin_phimax8); //its size
-
- G4LogicalVolume* logicDelrin8 =
- new G4LogicalVolume(solidDelrin8, //its solid
- delrin, //its material
- "Delrin8"); //its name
- logicDelrin8->SetVisAttributes(delrinVisAtt);
-
- if(delrinBool) {new G4PVPlacement(0, //no rotation
- delrin_pos8, //its position
- logicDelrin8, //its logical volume
- "Delrin8", //its name
- world, //its mother volume
- false, //no boolean operation
- 0, //copy number
- checkOverlaps); //overlaps checking
- }
- */
- //
- // Delrin Ring
- //
- G4double delrinA8 = 5*mm;
- G4double delrinB8 = 10*mm;
- G4double fdelrinHalfAngle8 = atan(delrinB8/2/(distanceFromTarget8+detThickness8+lgThickness8));
- G4double firs8 = pow(pow(distanceFromTarget8+detThickness8+lgThickness8,2)+pow(delrinB8/2,2),0.5)*sin(theta8-fdelrinHalfAngle8);
- G4double firb8 = pow(pow(distanceFromTarget8+detThickness8+lgThickness8,2)+pow(delrinB8/2,2),0.5)*sin(theta8+fdelrinHalfAngle8);
- G4double bdelrinHalfAngle8 = atan(delrinB8/2/(distanceFromTarget8+detThickness8+lgThickness8+delrinA8));
- G4double birs8 = pow(pow(distanceFromTarget8+detThickness8+lgThickness8+delrinA8,2)+pow(delrinB8/2,2),0.5)*sin(theta8-bdelrinHalfAngle8);
- G4double birb8 = pow(pow(distanceFromTarget8+detThickness8+lgThickness8+delrinA8,2)+pow(delrinB8/2,2),0.5)*sin(theta8+bdelrinHalfAngle8);
-
- G4double delrin_dz8 = delrinB8/2;
- G4double delrin_theta8 = 0;
- G4double delrin_phi8 = 0;
- G4double delrin_dyab8 = delrinA8/2;
- G4double delrin_dxa8 = firs8*tan(180*deg/detNum8);
- G4double delrin_dxb8 = birs8*tan(180*deg/detNum8);
- G4double delrin_dycd8 = delrinA8/2;
- G4double delrin_dxc8 = firb8*tan(180*deg/detNum8);
- G4double delrin_dxd8 = birb8*tan(180*deg/detNum8);
- G4double delrin_alpab8 = 0;
- G4double delrin_alpcd8 = delrin_alpab8;
-
- G4ThreeVector delrin_pos8 = G4ThreeVector(0,0,distanceFromTarget8*cos(theta8));
-
- G4Trap* solidDelrin8 =
- new G4Trap("Delrin8", //its name
- delrin_dz8,
- delrin_theta8, delrin_phi8,
- delrin_dyab8,
- delrin_dxa8, delrin_dxb8,
- delrin_alpab8,
- delrin_dycd8,
- delrin_dxc8, delrin_dxd8,
- delrin_alpcd8); //its size
-
- G4LogicalVolume* logicDelrin8 =
- new G4LogicalVolume(solidDelrin8, //its solid
- delrin, //its material
- "Delrin8"); //its name
- logicDelrin8->SetVisAttributes(delrinVisAtt);
-
- //
- // CsI Detector
- //
- G4double coneheight8 = 1.7*distanceFromTarget8;
- G4double flatheight8 = coneheight8 -0.01*mm;
- G4double coneangle8 = theta8;
- G4double crystal_rmina8 = -(coneheight8-flatheight8)*tan(coneangle8+halfTheta8);
- G4double crystal_rmaxa8 = -(coneheight8-flatheight8)*tan(coneangle8-halfTheta8);
- G4double crystal_rminb8 = -coneheight8*tan(coneangle8+halfTheta8);
- G4double crystal_rmaxb8 = -coneheight8*tan(coneangle8-halfTheta8);
- G4double crystal_hz8 = 0.5*flatheight8;//(crystal_rmaxb8-crystal_rmaxa8)/crystal_rmaxb8*coneheight8;
- G4double crystal_phimin8 = 0.*deg, crystal_phimax8 = 360.*deg/detNum8;
- G4RotationMatrix tip_rotm8 = G4RotationMatrix();
- G4ThreeVector tip_pos8 = G4ThreeVector(0,0,0.5*flatheight8+(coneheight8-flatheight8)); //last term is a fudge
- G4Transform3D tip_trans8 = G4Transform3D(tip_rotm8, tip_pos8);
- G4ThreeVector z8 = G4ThreeVector(0,0,1);
- G4ThreeVector d08 = G4ThreeVector(distanceFromTarget8*sin(coneangle8)*cos(0.5*360*deg/detNum8),
- distanceFromTarget8*sin(coneangle8)*sin(0.5*360*deg/detNum8),
- -distanceFromTarget8*cos(coneangle8));
- G4ThreeVector unitAxis8 = z8.cross(d08);
- unitAxis8 = unitAxis8/unitAxis8.mag();
- G4double ux8 = unitAxis8.x();
- G4double uy8 = unitAxis8.y();
- G4double uz8 = unitAxis8.z();
- G4ThreeVector top8 = G4ThreeVector(cos(-coneangle8)+pow(ux8,2)*(1-cos(-coneangle8)), ux8*uy8*(1-cos(-coneangle8))-uz8*sin(-coneangle8), ux8*uz8*(1-cos(-coneangle8))+uy8*sin(-coneangle8));
- G4ThreeVector mid8 = G4ThreeVector(uy8*ux8*(1-cos(-coneangle8))+uz8*sin(-coneangle8), cos(-coneangle8)+pow(uy8,2)*(1-cos(-coneangle8)), uy8*uz8*(1-cos(-coneangle8))-ux8*sin(-coneangle8));
- G4ThreeVector bot8 = G4ThreeVector(uz8*ux8*(1-cos(-coneangle8))-uy8*sin(-coneangle8), uz8*uy8*(1-cos(-coneangle8))+ux8*sin(-coneangle8), cos(-coneangle8)+pow(uz8,2)*(1-cos(-coneangle8)));
- G4RotationMatrix firstBox_rotm8 = G4RotationMatrix();
- firstBox_rotm8.setRows(top8,mid8,bot8);
- G4ThreeVector firstBox_pos8 = G4ThreeVector(0,0,0);
- G4Transform3D firstBox_trans8 = G4Transform3D(firstBox_rotm8, firstBox_pos8);
- G4RotationMatrix secondBox_rotm8 = G4RotationMatrix();
- secondBox_rotm8.setRows(top8,mid8,bot8);
- G4ThreeVector secondBox_pos8 = (2*distanceFromTarget8+detThickness8)/d08.mag()*d08;
- G4Transform3D secondBox_trans8 = G4Transform3D(secondBox_rotm8, secondBox_pos8);
-
- G4Orb* solidTip8 =
- new G4Orb("tip8",
- .0001*mm);
- G4Box* solidSubtractionBox8 =
- new G4Box("SubtractionBox8", //its name
- distanceFromTarget8,
- distanceFromTarget8,
- distanceFromTarget8); //its size
- G4Cons* solidCone8 =
- new G4Cons("Cone8", //its name
- crystal_rmina8, crystal_rmaxa8,
- crystal_rminb8, crystal_rmaxb8,
- crystal_hz8,
- crystal_phimin8, crystal_phimax8); //its size
- G4UnionSolid* solidTippedCone8 =
- new G4UnionSolid("TippedCone8",
- solidTip8,
- solidCone8,
- tip_trans8);
- G4SubtractionSolid* solidIntermediate8 =
- new G4SubtractionSolid("Intermediate8",
- solidTippedCone8,
- solidSubtractionBox8,
- firstBox_trans8);
- G4SubtractionSolid* solidCrystal8 =
- new G4SubtractionSolid("Crystal8",
- solidIntermediate8,
- solidSubtractionBox8,
- secondBox_trans8);
-
- G4LogicalVolume* logicCrystal8 =
- new G4LogicalVolume(solidCrystal8, //its solid
- CsI, //its material
- "CsI Detector8"); //its name
- logicCrystal8->SetVisAttributes(crystalVisAtt);
- logicCrystal8->SetSensitiveDetector(m_MicroballScorer);
- //
- // Light Guide
- //
- G4double lightGuide_px8 = 10*mm;
- G4double lightGuide_py8 = 10*mm;
- G4double lightGuide_pz8 = lgThickness8;
- G4Box* solidLightGuide8 =
- new G4Box("LightGuide8", //its name
- 0.5*lightGuide_px8,
- 0.5*lightGuide_py8,
- 0.5*lightGuide_pz8); //its size
-
- G4LogicalVolume* logicLightGuide8 =
- new G4LogicalVolume(solidLightGuide8, //its solid
- glass, //its material
- "LightGuide8"); //its name
- logicLightGuide8->SetVisAttributes(lightGuideVisAtt);
-
-
- for(int i = 1; i <= detNum8; i++)
- {
- G4RotationMatrix crystal_rotm = G4RotationMatrix();
- G4ThreeVector d0 = G4ThreeVector(distanceFromTarget8*sin(coneangle8)*cos(0.5*360*deg/detNum8),
- distanceFromTarget8*sin(coneangle8)*sin(0.5*360*deg/detNum8),
- distanceFromTarget8*cos(coneangle8));
- G4ThreeVector df = G4ThreeVector(distanceFromTarget8*sin(theta8)*sin((i-1)*360*deg/detNum8+.001*deg/*+0.5*360*deg/detNum8*/),
- distanceFromTarget8*sin(theta8)*cos((i-1)*360*deg/detNum8+.001*deg/*+0.5*360*deg/detNum8*/),
- -distanceFromTarget8*cos(theta8));
- df.setX(-df.x());
- G4ThreeVector axis = d0.cross(df);
- G4double ax = axis.x();
- G4double ay = axis.y();
- G4double az = axis.z();
- G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
- G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
- G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
- G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
- G4RotationMatrix abc = G4RotationMatrix();
- abc.setRows(a,b,c);
- G4ThreeVector unitdf = df/df.mag();
- G4double udfx = unitdf.x();
- G4double udfy = unitdf.y();
- G4double udfz = unitdf.z();
- G4double k = 180.*deg;
- G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
- G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
- G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
- G4RotationMatrix def = G4RotationMatrix();
- def.setRows(d,e,f);
- crystal_rotm=def*abc;
- if (m_Flip == 1){
- crystal_rotm.rotateY(180*deg);
- }
- crystal_rotm.rotateZ(180*deg);
- G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
- G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
- df.setX(-df.x());
- G4RotationMatrix lg_rotm = G4RotationMatrix();
- G4ThreeVector lg_Axis = df.cross(z8);
- lg_Axis = lg_Axis/lg_Axis.mag();
- lg_Axis.rotateZ(180*deg);
- G4double ulgx = lg_Axis.x();
- G4double ulgy = lg_Axis.y();
- G4double ulgz = lg_Axis.z();
- G4ThreeVector p = G4ThreeVector(cos(theta8)+pow(ulgx,2)*(1-cos(theta8)), ulgx*ulgy*(1-cos(theta8))-ulgz*sin(theta8), ulgx*ulgz*(1-cos(theta8))+ulgy*sin(theta8));
- G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta8))+ulgz*sin(theta8), cos(theta8)+pow(ulgy,2)*(1-cos(theta8)), ulgy*ulgz*(1-cos(theta8))-ulgx*sin(theta8));
- G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta8))-ulgy*sin(theta8), ulgz*ulgy*(1-cos(theta8))+ulgx*sin(theta8), cos(theta8)+pow(ulgz,2)*(1-cos(theta8)));
- G4RotationMatrix pqr = G4RotationMatrix();
- pqr.setRows(p,q,r);
- lg_rotm.rotateZ((i-1)*360*deg/detNum8);
- lg_rotm.rotateX(180*deg);
- lg_rotm=pqr*lg_rotm;
- G4ThreeVector lg_pos = (distanceFromTarget8+detThickness8+0.5*lgThickness8+.0003*mm)/df.mag()*df;
- lg_pos.rotateZ(180*deg);
- if (m_Flip == 0){
- lg_pos.rotateY(180*deg);
- lg_rotm.rotateY(180*deg);
- }
- G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
- G4RotationMatrix delrin_rotm = G4RotationMatrix();
- G4ThreeVector w = G4ThreeVector(sin(theta8)*sin((i-1)*360*deg/detNum8+.001*deg), sin(theta8)*cos((i-1)*360*deg/detNum8+.001*deg), cos(theta8));
- G4ThreeVector delrin_Axis = w.cross(z8);
- delrin_Axis.rotateX(180*deg);
- delrin_Axis = delrin_Axis/delrin_Axis.mag();
- G4double udx = delrin_Axis.x();
- G4double udy = delrin_Axis.y();
- G4double udz = delrin_Axis.z();
- G4double delAng = -90*deg+theta8;
- G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
- G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
- G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
- G4RotationMatrix pqrdel = G4RotationMatrix();
- pqrdel.setRows(pdel,qdel,rdel);
- delrin_rotm.rotateZ((-i+1)*360*deg/detNum8+.001*deg);
- delrin_rotm.rotateX(180*deg);
- delrin_rotm=pqrdel*delrin_rotm;
- delrin_rotm.rotateZ(0*deg);
- G4ThreeVector delrin_pos = (distanceFromTarget8+detThickness8+lgThickness8+delrinA8/2+.0005*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
- delrin_pos.rotateZ(180*deg);
- delrin_pos.rotateY(180*deg);
- if (m_Flip == 1){
- delrin_pos.rotateY(180*deg);
- delrin_rotm.rotateY(180*deg);
- }
- G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
- bool placeCrystal = true;
- for (unsigned int i2=0; i2 < m_Array.size(); i2++){
- if (80 < m_Array[i2] && m_Array[i2] < 91){
- if (m_Array[i2] == 80+i){
- placeCrystal = false;
- }
- }
- }
- if (placeCrystal){
- if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
- logicCrystal8, //its logical volume
- "CsI Detector8", //its name
- world, //its mother volume
- false, //no boolean operation
- 80+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- if (placeCrystal){
- if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
- logicLightGuide8, //its logical volume
- "LightGuide8", //its name
- world, //its mother volume
- false, //no boolean operation
- 80+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
- logicDelrin8, //its logical volume
- "Delrin8", //its name
- world, //its mother volume
- false, //no boolean operation
- 80+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- }}
+ //the below for-loop is commented out, and to be replaced with our detector geometry.
+
+ G4bool checkOverlaps = false;
+ G4double delrinBool = 1;
+ G4double crystalBool = 1;
+ G4double lgBool = 1;
+
+ G4NistManager* nist = G4NistManager::Instance();
+
+G4Material* Al = nist->FindOrBuildMaterial("G4_Al");
+G4VisAttributes* chamberVisAtt = new G4VisAttributes(G4Colour(.7,.7,.7, .3));
+G4Material* CsI = nist->FindOrBuildMaterial("G4_CESIUM_IODIDE");
+G4VisAttributes* crystalVisAtt = new G4VisAttributes(G4Colour(0.,1.,0., .5));
+G4Material* glass = nist->FindOrBuildMaterial("G4_Pyrex_Glass");
+G4VisAttributes* lightGuideVisAtt = new G4VisAttributes(G4Colour(0.,0.,1.));
+G4Material* delrin = nist->FindOrBuildMaterial("G4_POLYOXYMETHYLENE");
+G4VisAttributes* delrinVisAtt = new G4VisAttributes(G4Colour(1.,0.,0.));
+
+if(m_Chamber){
+ //----------------------------------------------------
+ //the specifications for the dimensions of the chamber
+ //----------------------------------------------------
+
+ G4double chamberThickness = 7.9375*mm;
+ G4double beamlineThickness = 10*mm;
+
+ //the empty space in the chamber
+ G4double subchamber_rmin = 0*mm;
+ G4double subchamber_rmax = 673.1*mm;
+ G4double subchamber_hz = (406.4*mm +251.46*mm)/2; //673.1*mm/2;
+ G4double subchamber_phimin = 0*deg;
+ G4double subchamber_phimax = 360*deg;
+ G4RotationMatrix subchamber_rotm1 = G4RotationMatrix();
+ G4ThreeVector subchamber_pos1 = G4ThreeVector(0,0,0);
+ G4Transform3D subchamber_trans1 = G4Transform3D(subchamber_rotm1, subchamber_pos1);
+
+ //the walls of the chamber
+ G4double chamber_rmin = 0*mm;
+ G4double chamber_rmax = subchamber_rmax +chamberThickness;
+ G4double chamber_hz = subchamber_hz -0.1*mm; //fudge factor to make sure the top doesn't show up in the visualizer
+ G4double chamber_phimin = 0*deg;
+ G4double chamber_phimax = 360*deg;
+ G4RotationMatrix chamber_rotm = G4RotationMatrix();
+ chamber_rotm.rotateX(90*deg);
+ G4ThreeVector chamber_pos = G4ThreeVector(0,-(chamber_hz -406.4*mm +76.2*mm),0);
+ G4Transform3D chamber_trans = G4Transform3D(chamber_rotm, chamber_pos);
+
+ //the top and bottom of the chamber
+ G4double chambertop_height = 274.32*mm;
+ G4double chambertop_semix = chamber_rmax;
+ G4double chambertop_semiy = chamber_rmax;
+ G4double chambertop_semiz = chambertop_height;
+ G4double chambertop_bottomcut = 0;
+ G4double chambertop_topcut = chambertop_semiz;
+ G4RotationMatrix chambertop_rotm = G4RotationMatrix();
+ chambertop_rotm.rotateX(-90*deg);
+ G4ThreeVector chambertop_pos = G4ThreeVector(0,chamber_pos.getY() +chamber_hz,0);
+ G4Transform3D chambertop_trans = G4Transform3D(chambertop_rotm, chambertop_pos);
+ G4RotationMatrix chamberbottom_rotm = G4RotationMatrix();
+ chamberbottom_rotm.rotateX(90*deg);
+ G4ThreeVector chamberbottom_pos = G4ThreeVector(0,chamber_pos.getY() -chamber_hz,0);
+ G4Transform3D chamberbottom_trans = G4Transform3D(chamberbottom_rotm, chamberbottom_pos);
+
+ //the empty space in the top and bottom of the chamber
+ G4double subtop_semix = chambertop_semix -chamberThickness;
+ G4double subtop_semiy = chambertop_semiy -chamberThickness;
+ G4double subtop_semiz = chambertop_semiz -chamberThickness;
+ G4double subtop_bottomcut = 0 -0.1*mm; //fudge factor to make sure the bottom doesn't show up in the visualizer
+ G4double subtop_topcut = subtop_semiz;
+ G4RotationMatrix subtop_rotm = G4RotationMatrix();
+ G4ThreeVector subtop_pos = G4ThreeVector(0,0,0);
+ G4Transform3D subtop_trans = G4Transform3D(subtop_rotm, subtop_pos);
+
+ //the hole for the beamline
+ G4double subhole_rmin = 0*mm;
+ G4double subhole_rmax = 152.4*mm/2;
+ G4double subhole_hz = 10*(chamber_rmax -subchamber_rmax);
+ G4double subhole_phimin = 0*deg;
+ G4double subhole_phimax = 360*deg;
+ G4RotationMatrix subhole_rotm = G4RotationMatrix();
+ subhole_rotm.rotateX(90*deg);
+ G4ThreeVector subhole_pos = G4ThreeVector(0,-(chamber_rmax +subchamber_rmax)/2,chamber_pos.getY());
+ G4Transform3D subhole_trans = G4Transform3D(subhole_rotm, subhole_pos);
+
+ //the beamline
+ G4double beamline_rmin = subhole_rmax -beamlineThickness;
+ G4double beamline_rmax = subhole_rmax;
+ G4double beamline_hz = 500*mm; //the real value is 8760.46*mm; but this makes visualization difficult.
+ G4double beamline_phimin = 0*deg;
+ G4double beamline_phimax = 360*deg;
+ G4RotationMatrix beamline_rotm = G4RotationMatrix();
+ G4ThreeVector beamline_pos = G4ThreeVector(0,0,-(subchamber_rmax +beamline_hz -subhole_hz));
+ G4Transform3D beamline_trans = G4Transform3D(beamline_rotm, beamline_pos);
+ G4RotationMatrix subchamber_rotm2 = G4RotationMatrix();
+ subchamber_rotm2.rotateX(90*deg);
+ G4ThreeVector subchamber_pos2 = G4ThreeVector(0,0,-beamline_pos.getZ());
+ G4Transform3D subchamber_trans2 = G4Transform3D(subchamber_rotm2, subchamber_pos2);
+
+ //----------------------------------------------------
+ //constructing the chamber
+ //----------------------------------------------------
+ //the walls of the chamber
+ G4Tubs* solidSubchamber =
+ new G4Tubs("Subchamber", //its name
+ subchamber_rmin, subchamber_rmax,
+ subchamber_hz,
+ subchamber_phimin, subchamber_phimax); //its size
+
+ G4Tubs* solidSubhole =
+ new G4Tubs("Subhole", //its name
+ subhole_rmin, subhole_rmax,
+ subhole_hz,
+ subhole_phimin, subhole_phimax); //its size
+
+ G4Tubs* solidStartchamber =
+ new G4Tubs("Startchamber", //its name
+ chamber_rmin, chamber_rmax,
+ chamber_hz,
+ chamber_phimin, chamber_phimax); //its size
+
+ G4SubtractionSolid* solidMidchamber =
+ new G4SubtractionSolid("Midchamber",
+ solidStartchamber,
+ solidSubchamber,
+ subchamber_trans1);
+
+ G4SubtractionSolid* solidChamber =
+ new G4SubtractionSolid("Chamber",
+ solidMidchamber,
+ solidSubhole,
+ subhole_trans);
+
+ G4LogicalVolume* logicChamber =
+ new G4LogicalVolume(solidChamber, //its solid
+ Al, //its material
+ "Chamber"); //its name
+ logicChamber->SetVisAttributes(chamberVisAtt);
+
+new G4PVPlacement(chamber_trans, //rotation, position
+ logicChamber, //its logical volume
+ "Chamber", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 1, //copy number
+ checkOverlaps); //overlaps checking
+
+//the top and bottom of the chamber
+ G4Ellipsoid* solidStartchambertop =
+ new G4Ellipsoid("Startchambertop", //its name
+ chambertop_semix, chambertop_semiy, chambertop_semiz,
+ chambertop_bottomcut, chambertop_topcut); //its size
+
+ G4Ellipsoid* solidSubtop =
+ new G4Ellipsoid("Subtop", //its name
+ subtop_semix, subtop_semiy, subtop_semiz,
+ subtop_bottomcut, subtop_topcut); //its size
+
+ G4SubtractionSolid* solidChambertop =
+ new G4SubtractionSolid("Chambertop",
+ solidStartchambertop,
+ solidSubtop,
+ subtop_trans);
+
+ G4LogicalVolume* logicChambertop =
+ new G4LogicalVolume(solidChambertop, //its solid
+ Al, //its material
+ "Chambertop"); //its name
+ logicChambertop->SetVisAttributes(chamberVisAtt);
+
+new G4PVPlacement(chambertop_trans, //rotation, position
+ logicChambertop, //its logical volume
+ "Chambertop", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 1, //copy number
+ checkOverlaps); //overlaps checking
+new G4PVPlacement(chamberbottom_trans, //rotation, position
+ logicChambertop, //its logical volume
+ "Chamberbottom", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 1, //copy number
+ checkOverlaps); //overlaps checking
+
+ //the beamline
+ G4Tubs* solidStartbeamline =
+ new G4Tubs("Startbeamline", //its name
+ beamline_rmin, beamline_rmax,
+ beamline_hz,
+ beamline_phimin, beamline_phimax); //its size
+
+ G4SubtractionSolid* solidBeamline =
+ new G4SubtractionSolid("Beamline",
+ solidStartbeamline,
+ solidSubchamber,
+ subchamber_trans2);
+
+ G4LogicalVolume* logicBeamline =
+ new G4LogicalVolume(solidBeamline, //its solid
+ Al, //its material
+ "Beamline"); //its name
+ logicBeamline->SetVisAttributes(chamberVisAtt);
+
+new G4PVPlacement(beamline_trans, //rotation, position
+ logicBeamline, //its logical volume
+ "Beamline", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 1, //copy number
+ checkOverlaps); //overlaps checking
+
+
+}
+
+
+if(m_Ring1){
+ // Ring 1 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ lg pseudofixed
+ G4int detNum1 = 6;
+ G4double distanceFromTargetBack1 = 110.*mm;
+ G4double theta1 = 9.0*deg;
+ G4double halfTheta1 = 5.0*deg;
+ G4double lgThickness1 = 8.0*mm;
+ G4double detThickness1 = 9.2*mm;
+ G4double distanceFromTarget1 = distanceFromTargetBack1 - detThickness1;
+
+ //G4double distance1 = distanceFromTarget1*sin(theta1); //this gives the distance from the beam axis.
+
+ //
+ // Delrin Ring
+ //
+ G4double delrinA1 = 5*mm;
+ G4double delrinB1 = 10*mm;
+ G4double fdelrinHalfAngle1 = atan(delrinB1/2/(distanceFromTarget1+detThickness1+lgThickness1));
+ G4double firs1 = pow(pow(distanceFromTarget1+detThickness1+lgThickness1,2)+pow(delrinB1/2,2),0.5)*sin(theta1-fdelrinHalfAngle1);
+ G4double firb1 = pow(pow(distanceFromTarget1+detThickness1+lgThickness1,2)+pow(delrinB1/2,2),0.5)*sin(theta1+fdelrinHalfAngle1);
+ G4double bdelrinHalfAngle1 = atan(delrinB1/2/(distanceFromTarget1+detThickness1+lgThickness1+delrinA1));
+ G4double birs1 = pow(pow(distanceFromTarget1+detThickness1+lgThickness1+delrinA1,2)+pow(delrinB1/2,2),0.5)*sin(theta1-bdelrinHalfAngle1);
+ G4double birb1 = pow(pow(distanceFromTarget1+detThickness1+lgThickness1+delrinA1,2)+pow(delrinB1/2,2),0.5)*sin(theta1+bdelrinHalfAngle1);
+
+ G4double delrin_dz1 = delrinB1/2;
+ G4double delrin_theta1 = 0;
+ G4double delrin_phi1 = 0;
+ G4double delrin_dyab1 = delrinA1/2;
+ G4double delrin_dxa1 = firs1*tan(180*deg/detNum1);
+ G4double delrin_dxb1 = birs1*tan(180*deg/detNum1);
+ G4double delrin_dycd1 = delrinA1/2;
+ G4double delrin_dxc1 = firb1*tan(180*deg/detNum1);
+ G4double delrin_dxd1 = birb1*tan(180*deg/detNum1);
+ G4double delrin_alpab1 = 0;
+ G4double delrin_alpcd1 = delrin_alpab1;
+
+
+ G4ThreeVector delrin_pos1 = G4ThreeVector(0,0,distanceFromTarget1*cos(theta1));
+
+ G4Trap* solidDelrin1 =
+ new G4Trap("Delrin1", //its name
+ delrin_dz1,
+ delrin_theta1, delrin_phi1,
+ delrin_dyab1,
+ delrin_dxa1, delrin_dxb1,
+ delrin_alpab1,
+ delrin_dycd1,
+ delrin_dxc1, delrin_dxd1,
+ delrin_alpcd1); //its size
+
+ G4LogicalVolume* logicDelrin1 =
+ new G4LogicalVolume(solidDelrin1, //its solid
+ delrin, //its material
+ "Delrin1"); //its name
+ logicDelrin1->SetVisAttributes(delrinVisAtt);
+
+ //
+ // CsI Detector
+ //
+ G4double coneheight1 = 2*distanceFromTarget1;
+ G4double flatheight1 = coneheight1-0.01*mm;
+ G4double coneangle1 = theta1;
+ G4double crystal_rmina1 = (coneheight1-flatheight1)*tan(coneangle1-halfTheta1);
+ G4double crystal_rmaxa1 = (coneheight1-flatheight1)*tan(coneangle1+halfTheta1);
+ G4double crystal_rminb1 = coneheight1*tan(coneangle1-halfTheta1);
+ G4double crystal_rmaxb1 = coneheight1*tan(coneangle1+halfTheta1);
+ G4double crystal_hz1 = 0.5*flatheight1;//(crystal_rmaxb1-crystal_rmaxa1)/crystal_rmaxb1*coneheight1;
+ G4double crystal_phimin1 = 0.*deg, crystal_phimax1 = 360.*deg/detNum1;
+ G4RotationMatrix tip_rotm1 = G4RotationMatrix();
+ G4ThreeVector tip_pos1 = G4ThreeVector(0,0,0.5*flatheight1+(coneheight1-flatheight1));
+ G4Transform3D tip_trans1 = G4Transform3D(tip_rotm1, tip_pos1);
+ G4ThreeVector z1 = G4ThreeVector(0,0,1);
+ G4ThreeVector d01 = G4ThreeVector(distanceFromTarget1*sin(coneangle1)*cos(0.5*360*deg/detNum1),
+ distanceFromTarget1*sin(coneangle1)*sin(0.5*360*deg/detNum1),
+ distanceFromTarget1*cos(coneangle1));
+ G4ThreeVector unitAxis1 = z1.cross(d01);
+ unitAxis1 = unitAxis1/unitAxis1.mag();
+ G4double ux1 = unitAxis1.x();
+ G4double uy1 = unitAxis1.y();
+ G4double uz1 = unitAxis1.z();
+ G4ThreeVector top1 = G4ThreeVector(cos(coneangle1)+pow(ux1,2)*(1-cos(coneangle1)), ux1*uy1*(1-cos(coneangle1))-uz1*sin(coneangle1), ux1*uz1*(1-cos(coneangle1))+uy1*sin(coneangle1));
+ G4ThreeVector mid1 = G4ThreeVector(uy1*ux1*(1-cos(coneangle1))+uz1*sin(coneangle1), cos(coneangle1)+pow(uy1,2)*(1-cos(coneangle1)), uy1*uz1*(1-cos(coneangle1))-ux1*sin(coneangle1));
+ G4ThreeVector bot1 = G4ThreeVector(uz1*ux1*(1-cos(coneangle1))-uy1*sin(coneangle1), uz1*uy1*(1-cos(coneangle1))+ux1*sin(coneangle1), cos(coneangle1)+pow(uz1,2)*(1-cos(coneangle1)));
+ G4RotationMatrix firstBox_rotm1 = G4RotationMatrix();
+ firstBox_rotm1.setRows(top1,mid1,bot1);
+ G4ThreeVector firstBox_pos1 = G4ThreeVector(0,0,0);
+ G4Transform3D firstBox_trans1 = G4Transform3D(firstBox_rotm1, firstBox_pos1);
+ G4RotationMatrix secondBox_rotm1 = G4RotationMatrix();
+ secondBox_rotm1.setRows(top1,mid1,bot1);
+ G4ThreeVector secondBox_pos1 = (2*distanceFromTarget1+detThickness1)/distanceFromTarget1*d01;
+ G4Transform3D secondBox_trans1 = G4Transform3D(secondBox_rotm1, secondBox_pos1);
+
+ G4Orb* solidTip1 =
+ new G4Orb("tip1",
+ .0001*mm);
+ G4Box* solidSubtractionBox1 =
+ new G4Box("SubtractionBox1", //its name
+ distanceFromTarget1,
+ distanceFromTarget1,
+ distanceFromTarget1); //its size
+ G4Cons* solidCone1 =
+ new G4Cons("Cone1", //its name
+ crystal_rmina1, crystal_rmaxa1,
+ crystal_rminb1, crystal_rmaxb1,
+ crystal_hz1,
+ crystal_phimin1, crystal_phimax1); //its size
+ G4UnionSolid* solidTippedCone1 =
+ new G4UnionSolid("TippedCone1",
+ solidTip1,
+ solidCone1,
+ tip_trans1);
+ G4SubtractionSolid* solidIntermediate1 =
+ new G4SubtractionSolid("Intermediate1",
+ solidTippedCone1,
+ solidSubtractionBox1,
+ firstBox_trans1);
+ G4SubtractionSolid* solidCrystal1 =
+ new G4SubtractionSolid("Crystal1",
+ solidIntermediate1,
+ solidSubtractionBox1,
+ secondBox_trans1);
+
+ G4LogicalVolume* logicCrystal1 =
+ new G4LogicalVolume(solidCrystal1, //its solid
+ CsI, //its material
+ "CsI Detector1"); //its name
+ logicCrystal1->SetVisAttributes(crystalVisAtt);
+ logicCrystal1->SetSensitiveDetector(m_MicroballScorer);
+ //fScoringVolume = logicCrystal1;
+
+ //
+ // Light Guide
+ //
+ G4double lightGuide_px1 = 10*mm;
+ G4double lightGuide_py1 = 10*mm;
+ G4double lightGuide_pz1 = lgThickness1;
+ G4Box* solidLightGuide1 =
+ new G4Box("LightGuide1", //its name
+ 0.5*lightGuide_px1,
+ 0.5*lightGuide_py1,
+ 0.5*lightGuide_pz1); //its size
+
+ G4LogicalVolume* logicLightGuide1 =
+ new G4LogicalVolume(solidLightGuide1, //its solid
+ glass, //its material
+ "LightGuide1"); //its name
+ logicLightGuide1->SetVisAttributes(lightGuideVisAtt);
+
+ for(int i = 1; i <= detNum1; i++)
+ {
+ G4RotationMatrix crystal_rotm = G4RotationMatrix();
+ G4ThreeVector d0 = G4ThreeVector(distanceFromTarget1*sin(coneangle1)*cos(0.5*360*deg/detNum1),
+ distanceFromTarget1*sin(coneangle1)*sin(0.5*360*deg/detNum1),
+ distanceFromTarget1*cos(coneangle1));
+ G4ThreeVector df = G4ThreeVector(distanceFromTarget1*sin(theta1)*sin((i-1)*360*deg/detNum1+.001*deg/*+0.5*360*deg/detNum1*/),
+ distanceFromTarget1*sin(theta1)*cos((i-1)*360*deg/detNum1+.001*deg/*+0.5*360*deg/detNum1*/),
+ -distanceFromTarget1*cos(theta1));
+ G4ThreeVector axis = d0.cross(df);
+ G4double ax = axis.x();
+ G4double ay = axis.y();
+ G4double az = axis.z();
+ G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
+ G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
+ G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
+ G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
+ G4RotationMatrix abc = G4RotationMatrix();
+ abc.setRows(a,b,c);
+ G4ThreeVector unitdf = df/df.mag();
+ G4double udfx = unitdf.x();
+ G4double udfy = unitdf.y();
+ G4double udfz = unitdf.z();
+ G4double k = 180.*deg;
+ G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
+ G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
+ G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
+ G4RotationMatrix def = G4RotationMatrix();
+ def.setRows(d,e,f);
+ crystal_rotm=def*abc;
+ if (m_Flip == 0){
+ crystal_rotm.rotateY(180*deg);
+ }
+ crystal_rotm.rotateZ(180*deg);
+ G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
+ G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
+ G4RotationMatrix lg_rotm = G4RotationMatrix();
+ G4ThreeVector lg_Axis = df.cross(z1);
+ lg_Axis = lg_Axis/lg_Axis.mag();
+ lg_Axis.rotateZ(180*deg);
+ G4double ulgx = lg_Axis.x();
+ G4double ulgy = lg_Axis.y();
+ G4double ulgz = lg_Axis.z();
+ G4ThreeVector p = G4ThreeVector(cos(theta1)+pow(ulgx,2)*(1-cos(theta1)), ulgx*ulgy*(1-cos(theta1))-ulgz*sin(theta1), ulgx*ulgz*(1-cos(theta1))+ulgy*sin(theta1));
+ G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta1))+ulgz*sin(theta1), cos(theta1)+pow(ulgy,2)*(1-cos(theta1)), ulgy*ulgz*(1-cos(theta1))-ulgx*sin(theta1));
+ G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta1))-ulgy*sin(theta1), ulgz*ulgy*(1-cos(theta1))+ulgx*sin(theta1), cos(theta1)+pow(ulgz,2)*(1-cos(theta1)));
+ G4RotationMatrix pqr = G4RotationMatrix();
+ pqr.setRows(p,q,r);
+ lg_rotm.rotateZ((i-1)*360*deg/detNum1);
+ lg_rotm.rotateX(180*deg);
+ lg_rotm=pqr*lg_rotm;
+ G4ThreeVector lg_pos = (distanceFromTarget1+detThickness1+0.5*lgThickness1)/df.mag()*df;
+ lg_pos.rotateZ(180*deg);
+ if (m_Flip == 0){
+ lg_pos.rotateY(180*deg);
+ lg_rotm.rotateY(180*deg);
+ }
+ G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
+ G4RotationMatrix delrin_rotm = G4RotationMatrix();
+ G4ThreeVector w = G4ThreeVector(sin(theta1)*sin((i-1)*360*deg/detNum1+.001*deg), sin(theta1)*cos((i-1)*360*deg/detNum1+.001*deg), cos(theta1));
+ G4ThreeVector delrin_Axis = w.cross(z1);
+ delrin_Axis = delrin_Axis/delrin_Axis.mag();
+ delrin_Axis.rotateX(180*deg);
+ G4double udx = delrin_Axis.x();
+ G4double udy = delrin_Axis.y();
+ G4double udz = delrin_Axis.z();
+ G4double delAng = 90*deg+theta1;
+ G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
+ G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
+ G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
+ G4RotationMatrix pqrdel = G4RotationMatrix();
+ pqrdel.setRows(pdel,qdel,rdel);
+ delrin_rotm.rotateZ((i-1)*360*deg/detNum1+.001*deg);
+ delrin_rotm=pqrdel*delrin_rotm;
+ G4ThreeVector delrin_pos = (distanceFromTarget1+detThickness1+lgThickness1+delrinA1/2+.0003*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
+ delrin_pos.rotateZ(180*deg);
+ delrin_pos.rotateY(180*deg);
+ if (m_Flip == 1){
+ delrin_pos.rotateY(180*deg);
+ delrin_rotm.rotateY(180*deg);
+ }
+ G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
+ bool placeCrystal = true;
+ for (unsigned int i2=0; i2 < m_Array.size(); i2++){
+ if (0 < m_Array[i2] && m_Array[i2] < 7){
+ /*if (1+6-m_Array[i2] == 0+i){
+ placeCrystal = false;
+ }*/
+ /*if (m_Array[i2] == 0+i){
+ placeCrystal = false;
+ }*/
+ if (m_Array[i2] == 0 +(i -detNum1/2)%detNum1){
+ placeCrystal = false;
+ }else if (m_Array[i2] == 0 +(i -detNum1/2)%detNum1 +detNum1){
+ placeCrystal = false;
+ }
+ }
+ }
+ if (placeCrystal){
+ if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
+ logicCrystal1, //its logical volume
+ "CsI Detector1", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 0+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
+ logicLightGuide1, //its logical volume
+ "LightGuide1", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 0+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
+ logicDelrin1, //its logical volume
+ "Delrin1", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 0+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ }}
+ if(m_Ring2){
+ // Ring 2 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ lg pseudofixed
+ G4int detNum2 = 10;
+ G4double distanceFromTargetBack2 = 80.*mm;
+ G4double theta2 = 21.0*deg;
+ G4double halfTheta2 = 7.0*deg; //+0.1*deg; //0.1 is a fudge factor to make it cover solid angle 4pi
+ G4double lgThickness2 = 7.5*mm;
+ G4double detThickness2 = 7.2*mm;
+ G4double distanceFromTarget2 = distanceFromTargetBack2 - detThickness2;
+
+ //G4double distance2 = distanceFromTarget2*sin(theta2); //this gives the distance from the beam axis.
+
+ //
+ // Delrin Ring
+ //
+ G4double delrinA2 = 5*mm;
+ G4double delrinB2 = 10*mm;
+ G4double fdelrinHalfAngle2 = atan(delrinB2/2/(distanceFromTarget2+detThickness2+lgThickness2));
+ G4double firs2 = pow(pow(distanceFromTarget2+detThickness2+lgThickness2,2)+pow(delrinB2/2,2),0.5)*sin(theta2-fdelrinHalfAngle2);
+ G4double firb2 = pow(pow(distanceFromTarget2+detThickness2+lgThickness2,2)+pow(delrinB2/2,2),0.5)*sin(theta2+fdelrinHalfAngle2);
+ G4double bdelrinHalfAngle2 = atan(delrinB2/2/(distanceFromTarget2+detThickness2+lgThickness2+delrinA2));
+ G4double birs2 = pow(pow(distanceFromTarget2+detThickness2+lgThickness2+delrinA2,2)+pow(delrinB2/2,2),0.5)*sin(theta2-bdelrinHalfAngle2);
+ G4double birb2 = pow(pow(distanceFromTarget2+detThickness2+lgThickness2+delrinA2,2)+pow(delrinB2/2,2),0.5)*sin(theta2+bdelrinHalfAngle2);
+
+ G4double delrin_dz2 = delrinB2/2;
+ G4double delrin_theta2 = 0;
+ G4double delrin_phi2 = 0;
+ G4double delrin_dyab2 = delrinA2/2;
+ G4double delrin_dxa2 = firs2*tan(180*deg/detNum2);
+ G4double delrin_dxb2 = birs2*tan(180*deg/detNum2);
+ G4double delrin_dycd2 = delrinA2/2;
+ G4double delrin_dxc2 = firb2*tan(180*deg/detNum2);
+ G4double delrin_dxd2 = birb2*tan(180*deg/detNum2);
+ G4double delrin_alpab2 = 0;
+ G4double delrin_alpcd2 = delrin_alpab2;
+
+
+ G4ThreeVector delrin_pos2 = G4ThreeVector(0,0,distanceFromTarget2*cos(theta2));
+
+ G4Trap* solidDelrin2 =
+ new G4Trap("Delrin2", //its name
+ delrin_dz2,
+ delrin_theta2, delrin_phi2,
+ delrin_dyab2,
+ delrin_dxa2, delrin_dxb2,
+ delrin_alpab2,
+ delrin_dycd2,
+ delrin_dxc2, delrin_dxd2,
+ delrin_alpcd2); //its size
+
+ G4LogicalVolume* logicDelrin2 =
+ new G4LogicalVolume(solidDelrin2, //its solid
+ delrin, //its material
+ "Delrin2"); //its name
+ logicDelrin2->SetVisAttributes(delrinVisAtt);
+
+
+ //
+ // CsI Detector
+ //
+ G4double coneheight2 = 2*distanceFromTarget2;
+ G4double flatheight2 = coneheight2-0.01*mm;
+ G4double coneangle2 = theta2;
+ G4double crystal_rmina2 = (coneheight2-flatheight2)*tan(coneangle2-halfTheta2);
+ G4double crystal_rmaxa2 = (coneheight2-flatheight2)*tan(coneangle2+halfTheta2);
+ G4double crystal_rminb2 = coneheight2*tan(coneangle2-halfTheta2);
+ G4double crystal_rmaxb2 = coneheight2*tan(coneangle2+halfTheta2);
+ G4double crystal_hz2 = 0.5*flatheight2;//(crystal_rmaxb2-crystal_rmaxa2)/crystal_rmaxb2*coneheight2;
+ G4double crystal_phimin2 = 0.*deg, crystal_phimax2 = 360.*deg/detNum2;
+ G4RotationMatrix tip_rotm2 = G4RotationMatrix();
+ G4ThreeVector tip_pos2 = G4ThreeVector(0,0,0.5*flatheight2+(coneheight2-flatheight2));
+ G4Transform3D tip_trans2 = G4Transform3D(tip_rotm2, tip_pos2);
+ G4ThreeVector z2 = G4ThreeVector(0,0,1);
+ G4ThreeVector d02 = G4ThreeVector(distanceFromTarget2*sin(coneangle2)*cos(0.5*360*deg/detNum2),
+ distanceFromTarget2*sin(coneangle2)*sin(0.5*360*deg/detNum2),
+ distanceFromTarget2*cos(coneangle2));
+ G4ThreeVector unitAxis2 = z2.cross(d02);
+ unitAxis2 = unitAxis2/unitAxis2.mag();
+ G4double ux2 = unitAxis2.x();
+ G4double uy2 = unitAxis2.y();
+ G4double uz2 = unitAxis2.z();
+ G4ThreeVector top2 = G4ThreeVector(cos(coneangle2)+pow(ux2,2)*(1-cos(coneangle2)), ux2*uy2*(1-cos(coneangle2))-uz2*sin(coneangle2), ux2*uz2*(1-cos(coneangle2))+uy2*sin(coneangle2));
+ G4ThreeVector mid2 = G4ThreeVector(uy2*ux2*(1-cos(coneangle2))+uz2*sin(coneangle2), cos(coneangle2)+pow(uy2,2)*(1-cos(coneangle2)), uy2*uz2*(1-cos(coneangle2))-ux2*sin(coneangle2));
+ G4ThreeVector bot2 = G4ThreeVector(uz2*ux2*(1-cos(coneangle2))-uy2*sin(coneangle2), uz2*uy2*(1-cos(coneangle2))+ux2*sin(coneangle2), cos(coneangle2)+pow(uz2,2)*(1-cos(coneangle2)));
+ G4RotationMatrix firstBox_rotm2 = G4RotationMatrix();
+ firstBox_rotm2.setRows(top2,mid2,bot2);
+ G4ThreeVector firstBox_pos2 = G4ThreeVector(0,0,0);
+ G4Transform3D firstBox_trans2 = G4Transform3D(firstBox_rotm2, firstBox_pos2);
+ G4RotationMatrix secondBox_rotm2 = G4RotationMatrix();
+ secondBox_rotm2.setRows(top2,mid2,bot2);
+ G4ThreeVector secondBox_pos2 = (2*distanceFromTarget2+detThickness2)/distanceFromTarget2*d02;
+ G4Transform3D secondBox_trans2 = G4Transform3D(secondBox_rotm2, secondBox_pos2);
+
+ G4Orb* solidTip2 =
+ new G4Orb("tip2",
+ .0001*mm);
+ G4Box* solidSubtractionBox2 =
+ new G4Box("SubtractionBox2", //its name
+ distanceFromTarget2,
+ distanceFromTarget2,
+ distanceFromTarget2); //its size
+ G4Cons* solidCone2 =
+ new G4Cons("Cone2", //its name
+ crystal_rmina2, crystal_rmaxa2,
+ crystal_rminb2, crystal_rmaxb2,
+ crystal_hz2,
+ crystal_phimin2, crystal_phimax2); //its size
+ G4UnionSolid* solidTippedCone2 =
+ new G4UnionSolid("TippedCone2",
+ solidTip2,
+ solidCone2,
+ tip_trans2);
+ G4SubtractionSolid* solidIntermediate2 =
+ new G4SubtractionSolid("Intermediate2",
+ solidTippedCone2,
+ solidSubtractionBox2,
+ firstBox_trans2);
+ G4SubtractionSolid* solidCrystal2 =
+ new G4SubtractionSolid("Crystal2",
+ solidIntermediate2,
+ solidSubtractionBox2,
+ secondBox_trans2);
+
+ G4LogicalVolume* logicCrystal2 =
+ new G4LogicalVolume(solidCrystal2, //its solid
+ CsI, //its material
+ "CsI Detector2"); //its name
+ logicCrystal2->SetVisAttributes(crystalVisAtt);
+ logicCrystal2->SetSensitiveDetector(m_MicroballScorer);
+ //
+ // Light Guide
+ //
+ G4double lightGuide_px2 = 10*mm;
+ G4double lightGuide_py2 = 10*mm;
+ G4double lightGuide_pz2 = lgThickness2;
+ G4Box* solidLightGuide2 =
+ new G4Box("LightGuide2", //its name
+ 0.5*lightGuide_px2,
+ 0.5*lightGuide_py2,
+ 0.5*lightGuide_pz2); //its size
+
+ G4LogicalVolume* logicLightGuide2 =
+ new G4LogicalVolume(solidLightGuide2, //its solid
+ glass, //its material
+ "LightGuide2"); //its name
+ logicLightGuide2->SetVisAttributes(lightGuideVisAtt);
+
+ for(int i = 1; i <= detNum2; i++)
+ {
+ G4RotationMatrix crystal_rotm = G4RotationMatrix();
+ G4ThreeVector d0 = G4ThreeVector(distanceFromTarget2*sin(coneangle2)*cos(0.5*360*deg/detNum2),
+ distanceFromTarget2*sin(coneangle2)*sin(0.5*360*deg/detNum2),
+ distanceFromTarget2*cos(coneangle2));
+ G4ThreeVector df = G4ThreeVector(distanceFromTarget2*sin(theta2)*sin((i-1)*360*deg/detNum2+.001*deg/*+0.5*360*deg/detNum2*/),
+ distanceFromTarget2*sin(theta2)*cos((i-1)*360*deg/detNum2+.001*deg/*+0.5*360*deg/detNum2*/),
+ -distanceFromTarget2*cos(theta2));
+ G4ThreeVector axis = d0.cross(df);
+ G4double ax = axis.x();
+ G4double ay = axis.y();
+ G4double az = axis.z();
+ G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
+ G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
+ G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
+ G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
+ G4RotationMatrix abc = G4RotationMatrix();
+ abc.setRows(a,b,c);
+ G4ThreeVector unitdf = df/df.mag();
+ G4double udfx = unitdf.x();
+ G4double udfy = unitdf.y();
+ G4double udfz = unitdf.z();
+ G4double k = 180.*deg;
+ G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
+ G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
+ G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
+ G4RotationMatrix def = G4RotationMatrix();
+ def.setRows(d,e,f);
+ crystal_rotm=def*abc;
+ if (m_Flip == 0){
+ crystal_rotm.rotateY(180*deg);
+ }
+ crystal_rotm.rotateZ(180*deg);
+ G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
+ G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
+ G4RotationMatrix lg_rotm = G4RotationMatrix();
+ G4ThreeVector lg_Axis = df.cross(z2);
+ lg_Axis = lg_Axis/lg_Axis.mag();
+ lg_Axis.rotateZ(180*deg);
+ G4double ulgx = lg_Axis.x();
+ G4double ulgy = lg_Axis.y();
+ G4double ulgz = lg_Axis.z();
+ G4ThreeVector p = G4ThreeVector(cos(theta2)+pow(ulgx,2)*(1-cos(theta2)), ulgx*ulgy*(1-cos(theta2))-ulgz*sin(theta2), ulgx*ulgz*(1-cos(theta2))+ulgy*sin(theta2));
+ G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta2))+ulgz*sin(theta2), cos(theta2)+pow(ulgy,2)*(1-cos(theta2)), ulgy*ulgz*(1-cos(theta2))-ulgx*sin(theta2));
+ G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta2))-ulgy*sin(theta2), ulgz*ulgy*(1-cos(theta2))+ulgx*sin(theta2), cos(theta2)+pow(ulgz,2)*(1-cos(theta2)));
+ G4RotationMatrix pqr = G4RotationMatrix();
+ pqr.setRows(p,q,r);
+ lg_rotm.rotateZ((i-1)*360*deg/detNum2);
+ lg_rotm.rotateX(180*deg);
+ lg_rotm=pqr*lg_rotm;
+ G4ThreeVector lg_pos = (distanceFromTarget2+detThickness2+0.5*lgThickness2)/df.mag()*df;
+ lg_pos.rotateZ(180*deg);
+ if (m_Flip == 0){
+ lg_pos.rotateY(180*deg);
+ lg_rotm.rotateY(180*deg);
+ }
+ G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
+ G4Transform3D d0_trans = G4Transform3D(G4RotationMatrix(), d0);
+ G4Transform3D df_trans = G4Transform3D(G4RotationMatrix(), df);
+ G4RotationMatrix delrin_rotm = G4RotationMatrix();
+ G4ThreeVector w = G4ThreeVector(sin(theta2)*sin((i-1)*360*deg/detNum2+.001*deg), sin(theta2)*cos((i-1)*360*deg/detNum2+.001*deg), cos(theta2));
+ G4ThreeVector delrin_Axis = w.cross(z2);
+ delrin_Axis.rotateX(180*deg);
+ delrin_Axis = delrin_Axis/delrin_Axis.mag();
+ G4double udx = delrin_Axis.x();
+ G4double udy = delrin_Axis.y();
+ G4double udz = delrin_Axis.z();
+ G4double delAng = 90*deg+theta2;
+ G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
+ G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
+ G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
+ G4RotationMatrix pqrdel = G4RotationMatrix();
+ pqrdel.setRows(pdel,qdel,rdel);
+ delrin_rotm.rotateZ((i-1)*360*deg/detNum2+.001*deg);
+ delrin_rotm=pqrdel*delrin_rotm;
+ delrin_rotm.rotateZ(0*deg);
+ G4ThreeVector delrin_pos = (distanceFromTarget2+detThickness2+lgThickness2+delrinA2/2+.0003*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
+ delrin_pos.rotateZ(180*deg);
+ delrin_pos.rotateY(180*deg);
+ if (m_Flip == 1){
+ delrin_pos.rotateY(180*deg);
+ delrin_rotm.rotateY(180*deg);
+ }
+ G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
+ bool placeCrystal = true;
+ for (unsigned int i2=0; i2 < m_Array.size(); i2++){
+ if (6 < m_Array[i2] && m_Array[i2] < 17){
+ if (m_Array[i2] == 6 +(i -detNum2/2)%detNum2){
+ placeCrystal = false;
+ }else if (m_Array[i2] == 6 +(i -detNum2/2)%detNum2 +detNum2){
+ placeCrystal = false;
+ }
+ }
+ }
+ if (placeCrystal){
+ if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
+ logicCrystal2, //its logical volume
+ "CsI Detector2", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 6+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
+ logicLightGuide2, //its logical volume
+ "LightGuide2", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 6+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
+ logicDelrin2, //its logical volume
+ "Delrin2", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 6+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ }}
+
+ if(m_Ring3){
+ // Ring 3 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ lg pseudofixed
+ G4int detNum3 = 12;
+ G4double distanceFromTargetBack3 = 60.*mm;
+ G4double theta3 = 36.0*deg;
+ G4double halfTheta3 = 8.0*deg;
+ G4double lgThickness3 = 6.0*mm;
+ G4double detThickness3 = 6.4*mm;
+ G4double distanceFromTarget3 = distanceFromTargetBack3 - detThickness3;
+
+ //G4double distance3 = distanceFromTarget3*sin(theta3); //this gives the distance from the beam axis.
+
+ //
+ // Delrin Ring
+ //
+ G4double delrinA3 = 5*mm;
+ G4double delrinB3 = 10*mm;
+ G4double fdelrinHalfAngle3 = atan(delrinB3/2/(distanceFromTarget3+detThickness3+lgThickness3));
+ G4double firs3 = pow(pow(distanceFromTarget3+detThickness3+lgThickness3,2)+pow(delrinB3/2,2),0.5)*sin(theta3-fdelrinHalfAngle3);
+ G4double firb3 = pow(pow(distanceFromTarget3+detThickness3+lgThickness3,2)+pow(delrinB3/2,2),0.5)*sin(theta3+fdelrinHalfAngle3);
+ G4double bdelrinHalfAngle3 = atan(delrinB3/2/(distanceFromTarget3+detThickness3+lgThickness3+delrinA3));
+ G4double birs3 = pow(pow(distanceFromTarget3+detThickness3+lgThickness3+delrinA3,2)+pow(delrinB3/2,2),0.5)*sin(theta3-bdelrinHalfAngle3);
+ G4double birb3 = pow(pow(distanceFromTarget3+detThickness3+lgThickness3+delrinA3,2)+pow(delrinB3/2,2),0.5)*sin(theta3+bdelrinHalfAngle3);
+
+ G4double delrin_dz3 = delrinB3/2;
+ G4double delrin_theta3 = 0;
+ G4double delrin_phi3 = 0;
+ G4double delrin_dyab3 = delrinA3/2;
+ G4double delrin_dxa3 = firs3*tan(180*deg/detNum3);
+ G4double delrin_dxb3 = birs3*tan(180*deg/detNum3);
+ G4double delrin_dycd3 = delrinA3/2;
+ G4double delrin_dxc3 = firb3*tan(180*deg/detNum3);
+ G4double delrin_dxd3 = birb3*tan(180*deg/detNum3);
+ G4double delrin_alpab3 = 0;
+ G4double delrin_alpcd3 = delrin_alpab3;
+
+
+ G4ThreeVector delrin_pos3 = G4ThreeVector(0,0,distanceFromTarget3*cos(theta3));
+
+ G4Trap* solidDelrin3 =
+ new G4Trap("Delrin3", //its name
+ delrin_dz3,
+ delrin_theta3, delrin_phi3,
+ delrin_dyab3,
+ delrin_dxa3, delrin_dxb3,
+ delrin_alpab3,
+ delrin_dycd3,
+ delrin_dxc3, delrin_dxd3,
+ delrin_alpcd3); //its size
+
+ G4LogicalVolume* logicDelrin3 =
+ new G4LogicalVolume(solidDelrin3, //its solid
+ delrin, //its material
+ "Delrin3"); //its name
+ logicDelrin3->SetVisAttributes(delrinVisAtt);
+
+ //
+ // CsI Detector
+ //
+ G4double coneheight3 = distanceFromTarget3;
+ G4double flatheight3 = coneheight3-0.01*mm;
+ G4double coneangle3 = theta3;
+ G4double crystal_rmina3 = (coneheight3-flatheight3)*tan(coneangle3-halfTheta3);
+ G4double crystal_rmaxa3 = (coneheight3-flatheight3)*tan(coneangle3+halfTheta3);
+ G4double crystal_rminb3 = coneheight3*tan(coneangle3-halfTheta3);
+ G4double crystal_rmaxb3 = coneheight3*tan(coneangle3+halfTheta3);
+ G4double crystal_hz3 = 0.5*flatheight3;//(crystal_rmaxb3-crystal_rmaxa3)/crystal_rmaxb3*coneheight3;
+ G4double crystal_phimin3 = 0.*deg, crystal_phimax3 = 360.*deg/detNum3;
+ G4RotationMatrix tip_rotm3 = G4RotationMatrix();
+ G4ThreeVector tip_pos3 = G4ThreeVector(0,0,0.5*flatheight3+(coneheight3-flatheight3));
+ G4Transform3D tip_trans3 = G4Transform3D(tip_rotm3, tip_pos3);
+ G4ThreeVector z3 = G4ThreeVector(0,0,1);
+ G4ThreeVector d03 = G4ThreeVector(distanceFromTarget3*sin(coneangle3)*cos(0.5*360*deg/detNum3),
+ distanceFromTarget3*sin(coneangle3)*sin(0.5*360*deg/detNum3),
+ distanceFromTarget3*cos(coneangle3));
+ G4ThreeVector unitAxis3 = z3.cross(d03);
+ unitAxis3 = unitAxis3/unitAxis3.mag();
+ G4double ux3 = unitAxis3.x();
+ G4double uy3 = unitAxis3.y();
+ G4double uz3 = unitAxis3.z();
+ G4ThreeVector top3 = G4ThreeVector(cos(coneangle3)+pow(ux3,2)*(1-cos(coneangle3)), ux3*uy3*(1-cos(coneangle3))-uz3*sin(coneangle3), ux3*uz3*(1-cos(coneangle3))+uy3*sin(coneangle3));
+ G4ThreeVector mid3 = G4ThreeVector(uy3*ux3*(1-cos(coneangle3))+uz3*sin(coneangle3), cos(coneangle3)+pow(uy3,2)*(1-cos(coneangle3)), uy3*uz3*(1-cos(coneangle3))-ux3*sin(coneangle3));
+ G4ThreeVector bot3 = G4ThreeVector(uz3*ux3*(1-cos(coneangle3))-uy3*sin(coneangle3), uz3*uy3*(1-cos(coneangle3))+ux3*sin(coneangle3), cos(coneangle3)+pow(uz3,2)*(1-cos(coneangle3)));
+ G4RotationMatrix firstBox_rotm3 = G4RotationMatrix();
+ firstBox_rotm3.setRows(top3,mid3,bot3);
+ G4ThreeVector firstBox_pos3 = G4ThreeVector(0,0,0);
+ G4Transform3D firstBox_trans3 = G4Transform3D(firstBox_rotm3, firstBox_pos3);
+ G4RotationMatrix secondBox_rotm3 = G4RotationMatrix();
+ secondBox_rotm3.setRows(top3,mid3,bot3);
+ G4ThreeVector secondBox_pos3 = (2*distanceFromTarget3+detThickness3)/distanceFromTarget3*d03;
+ G4Transform3D secondBox_trans3 = G4Transform3D(secondBox_rotm3, secondBox_pos3);
+
+ G4Orb* solidTip3 =
+ new G4Orb("tip3",
+ .0001*mm);
+ G4Box* solidSubtractionBox3 =
+ new G4Box("SubtractionBox3", //its name
+ distanceFromTarget3,
+ distanceFromTarget3,
+ distanceFromTarget3); //its size
+ G4Cons* solidCone3 =
+ new G4Cons("Cone3", //its name
+ crystal_rmina3, crystal_rmaxa3,
+ crystal_rminb3, crystal_rmaxb3,
+ crystal_hz3,
+ crystal_phimin3, crystal_phimax3); //its size
+ G4UnionSolid* solidTippedCone3 =
+ new G4UnionSolid("TippedCone3",
+ solidTip3,
+ solidCone3,
+ tip_trans3);
+ G4SubtractionSolid* solidIntermediate3 =
+ new G4SubtractionSolid("Intermediate3",
+ solidTippedCone3,
+ solidSubtractionBox3,
+ firstBox_trans3);
+ G4SubtractionSolid* solidCrystal3 =
+ new G4SubtractionSolid("Crystal3",
+ solidIntermediate3,
+ solidSubtractionBox3,
+ secondBox_trans3);
+
+ G4LogicalVolume* logicCrystal3 =
+ new G4LogicalVolume(solidCrystal3, //its solid
+ CsI, //its material
+ "CsI Detector3"); //its name
+ logicCrystal3->SetVisAttributes(crystalVisAtt);
+ logicCrystal3->SetSensitiveDetector(m_MicroballScorer);
+
+
+ //
+ // Light Guide
+ //
+ G4double lightGuide_px3 = 10*mm;
+ G4double lightGuide_py3 = 10*mm;
+ G4double lightGuide_pz3 = lgThickness3;
+ G4Box* solidLightGuide3 =
+ new G4Box("LightGuide3", //its name
+ 0.5*lightGuide_px3,
+ 0.5*lightGuide_py3,
+ 0.5*lightGuide_pz3); //its size
+
+ G4LogicalVolume* logicLightGuide3 =
+ new G4LogicalVolume(solidLightGuide3, //its solid
+ glass, //its material
+ "LightGuide3"); //its name
+ logicLightGuide3->SetVisAttributes(lightGuideVisAtt);
+
+
+ for(int i = 1; i <= detNum3; i++)
+ {
+ G4RotationMatrix crystal_rotm = G4RotationMatrix();
+ G4ThreeVector d0 = G4ThreeVector(distanceFromTarget3*sin(coneangle3)*cos(0.5*360*deg/detNum3),
+ distanceFromTarget3*sin(coneangle3)*sin(0.5*360*deg/detNum3),
+ distanceFromTarget3*cos(coneangle3));
+ G4ThreeVector df = G4ThreeVector(distanceFromTarget3*sin(theta3)*sin((i-1)*360*deg/detNum3+.001*deg/*+0.5*360*deg/detNum3*/),
+ distanceFromTarget3*sin(theta3)*cos((i-1)*360*deg/detNum3+.001*deg/*+0.5*360*deg/detNum3*/),
+ -distanceFromTarget3*cos(theta3));
+ G4ThreeVector axis = d0.cross(df);
+ G4double ax = axis.x();
+ G4double ay = axis.y();
+ G4double az = axis.z();
+ G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
+ G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
+ G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
+ G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
+ G4RotationMatrix abc = G4RotationMatrix();
+ abc.setRows(a,b,c);
+ G4ThreeVector unitdf = df/df.mag();
+ G4double udfx = unitdf.x();
+ G4double udfy = unitdf.y();
+ G4double udfz = unitdf.z();
+ G4double k = 180.*deg;
+ G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
+ G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
+ G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
+ G4RotationMatrix def = G4RotationMatrix();
+ def.setRows(d,e,f);
+ crystal_rotm=def*abc;
+ if (m_Flip == 0){
+ crystal_rotm.rotateY(180*deg);
+ }
+ crystal_rotm.rotateZ(180*deg);
+ G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
+ G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
+ G4RotationMatrix lg_rotm = G4RotationMatrix();
+ G4ThreeVector lg_Axis = df.cross(z3);
+ lg_Axis = lg_Axis/lg_Axis.mag();
+ lg_Axis.rotateZ(180*deg);
+ G4double ulgx = lg_Axis.x();
+ G4double ulgy = lg_Axis.y();
+ G4double ulgz = lg_Axis.z();
+ G4ThreeVector p = G4ThreeVector(cos(theta3)+pow(ulgx,2)*(1-cos(theta3)), ulgx*ulgy*(1-cos(theta3))-ulgz*sin(theta3), ulgx*ulgz*(1-cos(theta3))+ulgy*sin(theta3));
+ G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta3))+ulgz*sin(theta3), cos(theta3)+pow(ulgy,2)*(1-cos(theta3)), ulgy*ulgz*(1-cos(theta3))-ulgx*sin(theta3));
+ G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta3))-ulgy*sin(theta3), ulgz*ulgy*(1-cos(theta3))+ulgx*sin(theta3), cos(theta3)+pow(ulgz,2)*(1-cos(theta3)));
+ G4RotationMatrix pqr = G4RotationMatrix();
+ pqr.setRows(p,q,r);
+ lg_rotm.rotateZ((i-1)*360*deg/detNum3);
+ lg_rotm.rotateX(180*deg);
+ lg_rotm=pqr*lg_rotm;
+ G4ThreeVector lg_pos = (distanceFromTarget3+detThickness3+0.5*lgThickness3)/df.mag()*df;
+ lg_pos.rotateZ(180*deg);
+ if (m_Flip == 0){
+ lg_pos.rotateY(180*deg);
+ lg_rotm.rotateY(180*deg);
+ }
+ G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
+ G4RotationMatrix delrin_rotm = G4RotationMatrix();
+ G4ThreeVector w = G4ThreeVector(sin(theta3)*sin((i-1)*360*deg/detNum3+.001*deg), sin(theta3)*cos((i-1)*360*deg/detNum3+.001*deg), cos(theta3));
+ G4ThreeVector delrin_Axis = w.cross(z3);
+ delrin_Axis.rotateX(180*deg);
+ delrin_Axis = delrin_Axis/delrin_Axis.mag();
+ G4double udx = delrin_Axis.x();
+ G4double udy = delrin_Axis.y();
+ G4double udz = delrin_Axis.z();
+ G4double delAng = 90*deg+theta3;
+ G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
+ G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
+ G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
+ G4RotationMatrix pqrdel = G4RotationMatrix();
+ pqrdel.setRows(pdel,qdel,rdel);
+ delrin_rotm.rotateZ((i-1)*360*deg/detNum3+.001*deg);
+ delrin_rotm=pqrdel*delrin_rotm;
+ delrin_rotm.rotateZ(0*deg);
+ G4ThreeVector delrin_pos = (distanceFromTarget3+detThickness3+lgThickness3+delrinA3/2+.0003*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
+ delrin_pos.rotateZ(180*deg);
+ delrin_pos.rotateY(180*deg);
+ if (m_Flip == 1){
+ delrin_pos.rotateY(180*deg);
+ delrin_rotm.rotateY(180*deg);
+ }
+ G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
+ //if(i != 1){
+ bool placeCrystal = true;
+ for (unsigned int i2=0; i2 < m_Array.size(); i2++){
+ if (16 < m_Array[i2] && m_Array[i2] < 29){
+ if (m_Array[i2] == 16 +(i -detNum3/2)%detNum3){
+ placeCrystal = false;
+ }else if (m_Array[i2] == 16 +(i -detNum3/2)%detNum3 +detNum3){
+ placeCrystal = false;
+ }
+ }
+ }
+ if (placeCrystal){
+ if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
+ logicCrystal3, //its logical volume
+ "CsI Detector3", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 16+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
+ logicLightGuide3, //its logical volume
+ "LightGuide3", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 16+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
+ logicDelrin3, //its logical volume
+ "Delrin3", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 16+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ //}
+ }}
+
+ if(m_Ring4){
+ // Ring 4 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
+ G4int detNum4 = 12;
+ G4double distanceFromTargetBack4 = 50.*mm;
+ G4double theta4 = 52.0*deg;
+ G4double halfTheta4 = 8.0*deg; // fudge factor
+ G4double lgThickness4 = 6.0*mm;
+ G4double detThickness4 = 6.0*mm;
+ G4double distanceFromTarget4 = distanceFromTargetBack4 - detThickness4;
+
+ //G4double distance4 = distanceFromTarget4*sin(theta4); //this gives the distance from the beam axis.
+
+ //
+ // Delrin Ring
+ //
+ G4double delrinA4 = 5*mm;
+ G4double delrinB4 = 10*mm;
+ G4double fdelrinHalfAngle4 = atan(delrinB4/2/(distanceFromTarget4+detThickness4+lgThickness4));
+ G4double firs4 = pow(pow(distanceFromTarget4+detThickness4+lgThickness4,2)+pow(delrinB4/2,2),0.5)*sin(theta4-fdelrinHalfAngle4);
+ G4double firb4 = pow(pow(distanceFromTarget4+detThickness4+lgThickness4,2)+pow(delrinB4/2,2),0.5)*sin(theta4+fdelrinHalfAngle4);
+ G4double bdelrinHalfAngle4 = atan(delrinB4/2/(distanceFromTarget4+detThickness4+lgThickness4+delrinA4));
+ G4double birs4 = pow(pow(distanceFromTarget4+detThickness4+lgThickness4+delrinA4,2)+pow(delrinB4/2,2),0.5)*sin(theta4-bdelrinHalfAngle4);
+ G4double birb4 = pow(pow(distanceFromTarget4+detThickness4+lgThickness4+delrinA4,2)+pow(delrinB4/2,2),0.5)*sin(theta4+bdelrinHalfAngle4);
+
+ G4double delrin_dz4 = delrinB4/2;
+ G4double delrin_theta4 = 0;
+ G4double delrin_phi4 = 0;
+ G4double delrin_dyab4 = delrinA4/2;
+ G4double delrin_dxa4 = firs4*tan(180*deg/detNum4);
+ G4double delrin_dxb4 = birs4*tan(180*deg/detNum4);
+ G4double delrin_dycd4 = delrinA4/2;
+ G4double delrin_dxc4 = firb4*tan(180*deg/detNum4);
+ G4double delrin_dxd4 = birb4*tan(180*deg/detNum4);
+ G4double delrin_alpab4 = 0;
+ G4double delrin_alpcd4 = delrin_alpab4;
+
+
+ G4ThreeVector delrin_pos4 = G4ThreeVector(0,0,distanceFromTarget4*cos(theta4));
+
+ G4Trap* solidDelrin4 =
+ new G4Trap("Delrin4", //its name
+ delrin_dz4,
+ delrin_theta4, delrin_phi4,
+ delrin_dyab4,
+ delrin_dxa4, delrin_dxb4,
+ delrin_alpab4,
+ delrin_dycd4,
+ delrin_dxc4, delrin_dxd4,
+ delrin_alpcd4); //its size
+
+ G4LogicalVolume* logicDelrin4 =
+ new G4LogicalVolume(solidDelrin4, //its solid
+ delrin, //its material
+ "Delrin4"); //its name
+ logicDelrin4->SetVisAttributes(delrinVisAtt);
+
+
+ //
+ // CsI Detector
+ //
+ G4double coneheight4 = distanceFromTarget4;
+ G4double flatheight4 = coneheight4 - 0.01*mm;
+ G4double coneangle4 = theta4;
+ G4double crystal_rmina4 = (coneheight4-flatheight4)*tan(coneangle4-halfTheta4);
+ G4double crystal_rmaxa4 = (coneheight4-flatheight4)*tan(coneangle4+halfTheta4);
+ G4double crystal_rminb4 = coneheight4*tan(coneangle4-halfTheta4);
+ G4double crystal_rmaxb4 = coneheight4*tan(coneangle4+halfTheta4);
+ G4double crystal_hz4 = 0.5*flatheight4;//(crystal_rmaxb4-crystal_rmaxa4)/crystal_rmaxb4*coneheight4;
+ G4double crystal_phimin4 = 0.*deg, crystal_phimax4 = 360.*deg/detNum4;
+ G4RotationMatrix tip_rotm4 = G4RotationMatrix();
+ G4ThreeVector tip_pos4 = G4ThreeVector(0,0,0.5*flatheight4+(coneheight4-flatheight4));
+ G4Transform3D tip_trans4 = G4Transform3D(tip_rotm4, tip_pos4);
+ G4ThreeVector z4 = G4ThreeVector(0,0,1);
+ G4ThreeVector d04 = G4ThreeVector(distanceFromTarget4*sin(coneangle4)*cos(0.5*360*deg/detNum4),
+ distanceFromTarget4*sin(coneangle4)*sin(0.5*360*deg/detNum4),
+ distanceFromTarget4*cos(coneangle4));
+ G4ThreeVector unitAxis4 = z4.cross(d04);
+ unitAxis4 = unitAxis4/unitAxis4.mag();
+ G4double ux4 = unitAxis4.x();
+ G4double uy4 = unitAxis4.y();
+ G4double uz4 = unitAxis4.z();
+ G4ThreeVector top4 = G4ThreeVector(cos(coneangle4)+pow(ux4,2)*(1-cos(coneangle4)), ux4*uy4*(1-cos(coneangle4))-uz4*sin(coneangle4), ux4*uz4*(1-cos(coneangle4))+uy4*sin(coneangle4));
+ G4ThreeVector mid4 = G4ThreeVector(uy4*ux4*(1-cos(coneangle4))+uz4*sin(coneangle4), cos(coneangle4)+pow(uy4,2)*(1-cos(coneangle4)), uy4*uz4*(1-cos(coneangle4))-ux4*sin(coneangle4));
+ G4ThreeVector bot4 = G4ThreeVector(uz4*ux4*(1-cos(coneangle4))-uy4*sin(coneangle4), uz4*uy4*(1-cos(coneangle4))+ux4*sin(coneangle4), cos(coneangle4)+pow(uz4,2)*(1-cos(coneangle4)));
+ G4RotationMatrix firstBox_rotm4 = G4RotationMatrix();
+ firstBox_rotm4.setRows(top4,mid4,bot4);
+ G4ThreeVector firstBox_pos4 = G4ThreeVector(0,0,0);
+ G4Transform3D firstBox_trans4 = G4Transform3D(firstBox_rotm4, firstBox_pos4);
+ G4RotationMatrix secondBox_rotm4 = G4RotationMatrix();
+ secondBox_rotm4.setRows(top4,mid4,bot4);
+ G4ThreeVector secondBox_pos4 = (2*distanceFromTarget4+detThickness4)/distanceFromTarget4*d04;
+ G4Transform3D secondBox_trans4 = G4Transform3D(secondBox_rotm4, secondBox_pos4);
+
+ G4Orb* solidTip4 =
+ new G4Orb("tip4",
+ .0001*mm);
+ G4Box* solidSubtractionBox4 =
+ new G4Box("SubtractionBox4", //its name
+ distanceFromTarget4,
+ distanceFromTarget4,
+ distanceFromTarget4); //its size
+ G4Cons* solidCone4 =
+ new G4Cons("Cone4", //its name
+ crystal_rmina4, crystal_rmaxa4,
+ crystal_rminb4, crystal_rmaxb4,
+ crystal_hz4,
+ crystal_phimin4, crystal_phimax4); //its size
+ G4UnionSolid* solidTippedCone4 =
+ new G4UnionSolid("TippedCone4",
+ solidTip4,
+ solidCone4,
+ tip_trans4);
+ G4SubtractionSolid* solidIntermediate4 =
+ new G4SubtractionSolid("Intermediate4",
+ solidTippedCone4,
+ solidSubtractionBox4,
+ firstBox_trans4);
+ G4SubtractionSolid* solidCrystal4 =
+ new G4SubtractionSolid("Crystal4",
+ solidIntermediate4,
+ solidSubtractionBox4,
+ secondBox_trans4);
+
+ G4LogicalVolume* logicCrystal4 =
+ new G4LogicalVolume(solidCrystal4, //its solid
+ CsI, //its material
+ "CsI Detector4"); //its name
+ logicCrystal4->SetVisAttributes(crystalVisAtt);
+ logicCrystal4->SetSensitiveDetector(m_MicroballScorer);
+
+ //
+ // Light Guide
+ //
+ G4double lightGuide_px4 = 10*mm;
+ G4double lightGuide_py4 = 10*mm;
+ G4double lightGuide_pz4 = lgThickness4;
+ G4Box* solidLightGuide4 =
+ new G4Box("LightGuide4", //its name
+ 0.5*lightGuide_px4,
+ 0.5*lightGuide_py4,
+ 0.5*lightGuide_pz4); //its size
+
+ G4LogicalVolume* logicLightGuide4 =
+ new G4LogicalVolume(solidLightGuide4, //its solid
+ glass, //its material
+ "LightGuide4"); //its name
+ logicLightGuide4->SetVisAttributes(lightGuideVisAtt);
+
+
+ for(int i = 1; i <= detNum4; i++)
+ {
+ G4RotationMatrix crystal_rotm = G4RotationMatrix();
+ G4ThreeVector d0 = G4ThreeVector(distanceFromTarget4*sin(coneangle4)*cos(0.5*360*deg/detNum4),
+ distanceFromTarget4*sin(coneangle4)*sin(0.5*360*deg/detNum4),
+ distanceFromTarget4*cos(coneangle4));
+ G4ThreeVector df = G4ThreeVector(distanceFromTarget4*sin(theta4)*sin((i-1)*360*deg/detNum4+.001*deg/*+0.5*360*deg/detNum4*/),
+ distanceFromTarget4*sin(theta4)*cos((i-1)*360*deg/detNum4+.001*deg/*+0.5*360*deg/detNum4*/),
+ -distanceFromTarget4*cos(theta4));
+ G4ThreeVector axis = d0.cross(df);
+ G4double ax = axis.x();
+ G4double ay = axis.y();
+ G4double az = axis.z();
+ G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
+ G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
+ G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
+ G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
+ G4RotationMatrix abc = G4RotationMatrix();
+ abc.setRows(a,b,c);
+ G4ThreeVector unitdf = df/df.mag();
+ G4double udfx = unitdf.x();
+ G4double udfy = unitdf.y();
+ G4double udfz = unitdf.z();
+ G4double k = 180.*deg;
+ G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
+ G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
+ G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
+ G4RotationMatrix def = G4RotationMatrix();
+ def.setRows(d,e,f);
+ crystal_rotm=def*abc;
+ if (m_Flip == 0){
+ crystal_rotm.rotateY(180*deg);
+ }
+ crystal_rotm.rotateZ(180*deg);
+ G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
+ G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
+ G4RotationMatrix lg_rotm = G4RotationMatrix();
+ G4ThreeVector lg_Axis = df.cross(z4);
+ lg_Axis = lg_Axis/lg_Axis.mag();
+ lg_Axis.rotateZ(180*deg);
+ G4double ulgx = lg_Axis.x();
+ G4double ulgy = lg_Axis.y();
+ G4double ulgz = lg_Axis.z();
+ G4ThreeVector p = G4ThreeVector(cos(theta4)+pow(ulgx,2)*(1-cos(theta4)), ulgx*ulgy*(1-cos(theta4))-ulgz*sin(theta4), ulgx*ulgz*(1-cos(theta4))+ulgy*sin(theta4));
+ G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta4))+ulgz*sin(theta4), cos(theta4)+pow(ulgy,2)*(1-cos(theta4)), ulgy*ulgz*(1-cos(theta4))-ulgx*sin(theta4));
+ G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta4))-ulgy*sin(theta4), ulgz*ulgy*(1-cos(theta4))+ulgx*sin(theta4), cos(theta4)+pow(ulgz,2)*(1-cos(theta4)));
+ G4RotationMatrix pqr = G4RotationMatrix();
+ pqr.setRows(p,q,r);
+ lg_rotm.rotateZ((i-1)*360*deg/detNum4);
+ lg_rotm.rotateX(180*deg);
+ lg_rotm=pqr*lg_rotm;
+ G4ThreeVector lg_pos = (distanceFromTarget4+detThickness4+0.5*lgThickness4)/df.mag()*df;
+ lg_pos.rotateZ(180*deg);
+ if (m_Flip == 0){
+ lg_pos.rotateY(180*deg);
+ lg_rotm.rotateY(180*deg);
+ }
+ G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
+ G4RotationMatrix delrin_rotm = G4RotationMatrix();
+ G4ThreeVector w = G4ThreeVector(sin(theta4)*sin((i-1)*360*deg/detNum4+.001*deg), sin(theta4)*cos((i-1)*360*deg/detNum4+.001*deg), cos(theta4));
+ G4ThreeVector delrin_Axis = w.cross(z4);
+ delrin_Axis.rotateX(180*deg);
+ delrin_Axis = delrin_Axis/delrin_Axis.mag();
+ G4double udx = delrin_Axis.x();
+ G4double udy = delrin_Axis.y();
+ G4double udz = delrin_Axis.z();
+ G4double delAng = 90*deg+theta4;
+ G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
+ G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
+ G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
+ G4RotationMatrix pqrdel = G4RotationMatrix();
+ pqrdel.setRows(pdel,qdel,rdel);
+ delrin_rotm.rotateZ((i-1)*360*deg/detNum4+.001*deg);
+ delrin_rotm=pqrdel*delrin_rotm;
+ delrin_rotm.rotateZ(0*deg);
+ G4ThreeVector delrin_pos = (distanceFromTarget4+detThickness4+lgThickness4+delrinA4/2+.0001*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
+ delrin_pos.rotateZ(180*deg);
+ delrin_pos.rotateY(180*deg);
+ if (m_Flip == 1){
+ delrin_pos.rotateY(180*deg);
+ delrin_rotm.rotateY(180*deg);
+ }
+ G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
+ //if(i != 1){
+ bool placeCrystal = true;
+ for (unsigned int i2=0; i2 < m_Array.size(); i2++){
+ if (28 < m_Array[i2] && m_Array[i2] < 41){
+ if (m_Array[i2] == 28 +(i -detNum4/2)%detNum4){
+ placeCrystal = false;
+ }else if (m_Array[i2] == 28 +(i -detNum4/2)%detNum4 +detNum4){
+ placeCrystal = false;
+ }
+ }
+ }
+ if (placeCrystal){
+ if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
+ logicCrystal4, //its logical volume
+ "CsI Detector4", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 28+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
+ logicLightGuide4, //its logical volume
+ "LightGuide4", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 28+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
+ logicDelrin4, //its logical volume
+ "Delrin4", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 28+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ //}
+ }}
+
+ if(m_Ring5){
+ // Ring 5 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
+ G4int detNum5 = 14;
+ G4double distanceFromTargetBack5 = 50.*mm;
+ G4double theta5 = 70.0*deg;
+ G4double halfTheta5 = 10.0*deg;// -0.1*deg; //fudge factor
+ G4double lgThickness5 = 6.0*mm;
+ G4double detThickness5 = 5.6*mm;
+ G4double distanceFromTarget5 = distanceFromTargetBack5 - detThickness5;
+
+ //G4double distance5 = distanceFromTarget5*sin(theta5); //this gives the distance from the beam axis.
+
+ //
+ // Delrin Ring
+ //
+ G4double delrinA5 = 5*mm;
+ G4double delrinB5 = 10*mm;
+ G4double fdelrinHalfAngle5 = atan(delrinB5/2/(distanceFromTarget5+detThickness5+lgThickness5));
+ G4double firs5 = pow(pow(distanceFromTarget5+detThickness5+lgThickness5,2)+pow(delrinB5/2,2),0.5)*sin(theta5-fdelrinHalfAngle5);
+ G4double firb5 = pow(pow(distanceFromTarget5+detThickness5+lgThickness5,2)+pow(delrinB5/2,2),0.5)*sin(theta5+fdelrinHalfAngle5);
+ G4double bdelrinHalfAngle5 = atan(delrinB5/2/(distanceFromTarget5+detThickness5+lgThickness5+delrinA5));
+ G4double birs5 = pow(pow(distanceFromTarget5+detThickness5+lgThickness5+delrinA5,2)+pow(delrinB5/2,2),0.5)*sin(theta5-bdelrinHalfAngle5);
+ G4double birb5 = pow(pow(distanceFromTarget5+detThickness5+lgThickness5+delrinA5,2)+pow(delrinB5/2,2),0.5)*sin(theta5+bdelrinHalfAngle5);
+
+ G4double delrin_dz5 = delrinB5/2;
+ G4double delrin_theta5 = 0;
+ G4double delrin_phi5 = 0;
+ G4double delrin_dyab5 = delrinA5/2;
+ G4double delrin_dxa5 = firs5*tan(180*deg/detNum5);
+ G4double delrin_dxb5 = birs5*tan(180*deg/detNum5);
+ G4double delrin_dycd5 = delrinA5/2;
+ G4double delrin_dxc5 = firb5*tan(180*deg/detNum5);
+ G4double delrin_dxd5 = birb5*tan(180*deg/detNum5);
+ G4double delrin_alpab5 = 0;
+ G4double delrin_alpcd5 = delrin_alpab5;
+
+
+ G4ThreeVector delrin_pos5 = G4ThreeVector(0,0,distanceFromTarget5*cos(theta5));
+
+ G4Trap* solidDelrin5 =
+ new G4Trap("Delrin5", //its name
+ delrin_dz5,
+ delrin_theta5, delrin_phi5,
+ delrin_dyab5,
+ delrin_dxa5, delrin_dxb5,
+ delrin_alpab5,
+ delrin_dycd5,
+ delrin_dxc5, delrin_dxd5,
+ delrin_alpcd5); //its size
+
+ G4LogicalVolume* logicDelrin5 =
+ new G4LogicalVolume(solidDelrin5, //its solid
+ delrin, //its material
+ "Delrin5"); //its name
+ logicDelrin5->SetVisAttributes(delrinVisAtt);
+
+ //
+ // CsI Detector
+ //
+ G4double coneheight5 = 0.6*distanceFromTarget5;
+ G4double flatheight5 = coneheight5 -0.01*mm;
+ G4double coneangle5 = theta5;
+ G4double crystal_rmina5 = (coneheight5-flatheight5)*tan(coneangle5-halfTheta5);
+ G4double crystal_rmaxa5 = (coneheight5-flatheight5)*tan(coneangle5+halfTheta5);
+ G4double crystal_rminb5 = coneheight5*tan(coneangle5-halfTheta5);
+ G4double crystal_rmaxb5 = coneheight5*tan(coneangle5+halfTheta5);
+ G4double crystal_hz5 = 0.5*flatheight5;//(crystal_rmaxb5-crystal_rmaxa5)/crystal_rmaxb5*coneheight5;
+ G4double crystal_phimin5 = 0.*deg, crystal_phimax5 = 360.*deg/detNum5;
+ G4RotationMatrix tip_rotm5 = G4RotationMatrix();
+ G4ThreeVector tip_pos5 = G4ThreeVector(0,0,0.5*flatheight5+(coneheight5-flatheight5)); //last z term is a fudge
+ G4Transform3D tip_trans5 = G4Transform3D(tip_rotm5, tip_pos5);
+ G4ThreeVector z5 = G4ThreeVector(0,0,1);
+ G4ThreeVector d05 = G4ThreeVector(distanceFromTarget5*sin(coneangle5)*cos(0.5*360*deg/detNum5),
+ distanceFromTarget5*sin(coneangle5)*sin(0.5*360*deg/detNum5),
+ distanceFromTarget5*cos(coneangle5));
+ G4ThreeVector unitAxis5 = z5.cross(d05);
+ unitAxis5 = unitAxis5/unitAxis5.mag();
+ G4double ux5 = unitAxis5.x();
+ G4double uy5 = unitAxis5.y();
+ G4double uz5 = unitAxis5.z();
+ G4ThreeVector top5 = G4ThreeVector(cos(coneangle5)+pow(ux5,2)*(1-cos(coneangle5)), ux5*uy5*(1-cos(coneangle5))-uz5*sin(coneangle5), ux5*uz5*(1-cos(coneangle5))+uy5*sin(coneangle5));
+ G4ThreeVector mid5 = G4ThreeVector(uy5*ux5*(1-cos(coneangle5))+uz5*sin(coneangle5), cos(coneangle5)+pow(uy5,2)*(1-cos(coneangle5)), uy5*uz5*(1-cos(coneangle5))-ux5*sin(coneangle5));
+ G4ThreeVector bot5 = G4ThreeVector(uz5*ux5*(1-cos(coneangle5))-uy5*sin(coneangle5), uz5*uy5*(1-cos(coneangle5))+ux5*sin(coneangle5), cos(coneangle5)+pow(uz5,2)*(1-cos(coneangle5)));
+ G4RotationMatrix firstBox_rotm5 = G4RotationMatrix();
+ firstBox_rotm5.setRows(top5,mid5,bot5);
+ G4ThreeVector firstBox_pos5 = G4ThreeVector(0,0,0);
+ G4Transform3D firstBox_trans5 = G4Transform3D(firstBox_rotm5, firstBox_pos5);
+ G4RotationMatrix secondBox_rotm5 = G4RotationMatrix();
+ secondBox_rotm5.setRows(top5,mid5,bot5);
+ G4ThreeVector secondBox_pos5 = (3*distanceFromTarget5+detThickness5)/distanceFromTarget5*d05;
+ G4Transform3D secondBox_trans5 = G4Transform3D(secondBox_rotm5, secondBox_pos5);
+
+ G4Orb* solidTip5 =
+ new G4Orb("tip5",
+ .0001*mm);
+ G4Box* solidSubtractionBox5 =
+ new G4Box("SubtractionBox5", //its name
+ distanceFromTarget5,
+ distanceFromTarget5,
+ distanceFromTarget5); //its size
+ G4Box* solidSecondSubtractionBox5 =
+ new G4Box("SecondSubtractionBox5", //its name
+ 2*distanceFromTarget5,
+ 2*distanceFromTarget5,
+ 2*distanceFromTarget5); //its size
+ G4Cons* solidCone5 =
+ new G4Cons("Cone5", //its name
+ crystal_rmina5, crystal_rmaxa5,
+ crystal_rminb5, crystal_rmaxb5,
+ crystal_hz5,
+ crystal_phimin5, crystal_phimax5); //its size
+ G4UnionSolid* solidTippedCone5 =
+ new G4UnionSolid("TippedCone5",
+ solidTip5,
+ solidCone5,
+ tip_trans5);
+ G4SubtractionSolid* solidIntermediate5 =
+ new G4SubtractionSolid("Intermediate5",
+ solidTippedCone5,
+ solidSubtractionBox5,
+ firstBox_trans5);
+ G4SubtractionSolid* solidCrystal5 =
+ new G4SubtractionSolid("Crystal5",
+ solidIntermediate5,
+ solidSecondSubtractionBox5,
+ secondBox_trans5);
+
+ G4LogicalVolume* logicCrystal5 =
+ new G4LogicalVolume(solidCrystal5, //its solid
+ CsI, //its material
+ "CsI Detector5"); //its name
+ logicCrystal5->SetVisAttributes(crystalVisAtt);
+ logicCrystal5->SetSensitiveDetector(m_MicroballScorer);
+
+
+ //
+ // Light Guide
+ //
+ G4double lightGuide_px5 = 10*mm;
+ G4double lightGuide_py5 = 10*mm;
+ G4double lightGuide_pz5 = lgThickness5;
+ G4Box* solidLightGuide5 =
+ new G4Box("LightGuide5", //its name
+ 0.5*lightGuide_px5,
+ 0.5*lightGuide_py5,
+ 0.5*lightGuide_pz5); //its size
+
+ G4LogicalVolume* logicLightGuide5 =
+ new G4LogicalVolume(solidLightGuide5, //its solid
+ glass, //its material
+ "LightGuide5"); //its name
+ logicLightGuide5->SetVisAttributes(lightGuideVisAtt);
+
+
+ for(int i = 1; i <= detNum5; i++)
+ {
+ G4RotationMatrix crystal_rotm = G4RotationMatrix();
+ G4ThreeVector d0 = G4ThreeVector(distanceFromTarget5*sin(coneangle5)*cos(0.5*360*deg/detNum5),
+ distanceFromTarget5*sin(coneangle5)*sin(0.5*360*deg/detNum5),
+ distanceFromTarget5*cos(coneangle5));
+ G4ThreeVector df = G4ThreeVector(distanceFromTarget5*sin(theta5)*sin((i-1)*360*deg/detNum5+.001*deg/*+0.5*360*deg/detNum5*/),
+ distanceFromTarget5*sin(theta5)*cos((i-1)*360*deg/detNum5+.001*deg/*+0.5*360*deg/detNum5*/),
+ -distanceFromTarget5*cos(theta5));
+ G4ThreeVector axis = d0.cross(df);
+ G4double ax = axis.x();
+ G4double ay = axis.y();
+ G4double az = axis.z();
+ G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
+ G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
+ G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
+ G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
+ G4RotationMatrix abc = G4RotationMatrix();
+ abc.setRows(a,b,c);
+ G4ThreeVector unitdf = df/df.mag();
+ G4double udfx = unitdf.x();
+ G4double udfy = unitdf.y();
+ G4double udfz = unitdf.z();
+ G4double k = 180.*deg;
+ G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
+ G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
+ G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
+ G4RotationMatrix def = G4RotationMatrix();
+ def.setRows(d,e,f);
+ crystal_rotm=def*abc;
+ if (m_Flip == 0){
+ crystal_rotm.rotateY(180*deg);
+ }
+ crystal_rotm.rotateZ(180*deg);
+ G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
+ G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
+ G4RotationMatrix lg_rotm = G4RotationMatrix();
+ G4ThreeVector lg_Axis = df.cross(z5);
+ lg_Axis = lg_Axis/lg_Axis.mag();
+ lg_Axis.rotateZ(180*deg);
+ G4double ulgx = lg_Axis.x();
+ G4double ulgy = lg_Axis.y();
+ G4double ulgz = lg_Axis.z();
+ G4ThreeVector p = G4ThreeVector(cos(theta5)+pow(ulgx,2)*(1-cos(theta5)), ulgx*ulgy*(1-cos(theta5))-ulgz*sin(theta5), ulgx*ulgz*(1-cos(theta5))+ulgy*sin(theta5));
+ G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta5))+ulgz*sin(theta5), cos(theta5)+pow(ulgy,2)*(1-cos(theta5)), ulgy*ulgz*(1-cos(theta5))-ulgx*sin(theta5));
+ G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta5))-ulgy*sin(theta5), ulgz*ulgy*(1-cos(theta5))+ulgx*sin(theta5), cos(theta5)+pow(ulgz,2)*(1-cos(theta5)));
+ G4RotationMatrix pqr = G4RotationMatrix();
+ pqr.setRows(p,q,r);
+ lg_rotm.rotateZ((i-1)*360*deg/detNum5);
+ lg_rotm.rotateX(180*deg);
+ lg_rotm=pqr*lg_rotm;
+ G4ThreeVector lg_pos = (distanceFromTarget5+detThickness5+0.5*lgThickness5)/df.mag()*df;
+ lg_pos.rotateZ(180*deg);
+ if (m_Flip == 0){
+ lg_pos.rotateY(180*deg);
+ lg_rotm.rotateY(180*deg);
+ }
+ G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
+ G4RotationMatrix delrin_rotm = G4RotationMatrix();
+ G4ThreeVector w = G4ThreeVector(sin(theta5)*sin((i-1)*360*deg/detNum5+.001*deg), sin(theta5)*cos((i-1)*360*deg/detNum5+.001*deg), cos(theta5));
+ G4ThreeVector delrin_Axis = w.cross(z5);
+ delrin_Axis.rotateX(180*deg);
+ delrin_Axis = delrin_Axis/delrin_Axis.mag();
+ G4double udx = delrin_Axis.x();
+ G4double udy = delrin_Axis.y();
+ G4double udz = delrin_Axis.z();
+ G4double delAng = 90*deg+theta5;
+ G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
+ G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
+ G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
+ G4RotationMatrix pqrdel = G4RotationMatrix();
+ pqrdel.setRows(pdel,qdel,rdel);
+ delrin_rotm.rotateZ((i-1)*360*deg/detNum5+.001*deg);
+ delrin_rotm=pqrdel*delrin_rotm;
+ delrin_rotm.rotateZ(0*deg);
+ G4ThreeVector delrin_pos = (distanceFromTarget5+detThickness5+lgThickness5+delrinA5/2+.0004*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
+ delrin_pos.rotateZ(180*deg);
+ delrin_pos.rotateY(180*deg);
+ if (m_Flip == 1){
+ delrin_pos.rotateY(180*deg);
+ delrin_rotm.rotateY(180*deg);
+ }
+ G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
+ //if(i != 1){
+ bool placeCrystal = true;
+ for (unsigned int i2=0; i2 < m_Array.size(); i2++){
+ if (40 < m_Array[i2] && m_Array[i2] < 55){
+ if (m_Array[i2] == 40 +(i -detNum5/2)%detNum5){
+ placeCrystal = false;
+ }else if (m_Array[i2] == 40 +(i -detNum5/2)%detNum5 +detNum5){
+ placeCrystal = false;
+ }
+ }
+ }
+ if (placeCrystal){
+ if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
+ logicCrystal5, //its logical volume
+ "CsI Detector5", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 40+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
+ logicLightGuide5, //its logical volume
+ "LightGuide5", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 40+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ //}
+ if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
+ logicDelrin5, //its logical volume
+ "Delrin5", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 40+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ }}
+
+ if(m_Ring6){
+ // Ring 6 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ this ring is weird.
+ G4int detNum6 = 14;
+ G4double distanceFromTargetBack6 = 50.*mm;
+ G4double theta6 = 90.0*deg;
+ G4double halfTheta6 = 10.0*deg;// -0.1*deg;
+ G4double lgThickness6 = 7.0*mm;
+ G4double detThickness6 = 5.2*mm;
+ G4double distanceFromTarget6 = distanceFromTargetBack6 - detThickness6;
+
+ //G4double distance6 = distanceFromTarget6*sin(theta6); //this gives the distance from the beam axis.
+
+ //
+ // Delrin Ring
+ //
+ G4double delrinA6 = 5*mm;
+ G4double delrinB6 = 10*mm;
+ G4double fdelrinHalfAngle6 = atan(delrinB6/2/(distanceFromTarget6+detThickness6+lgThickness6));
+ G4double firs6 = pow(pow(distanceFromTarget6+detThickness6+lgThickness6,2)+pow(delrinB6/2,2),0.5)*sin(theta6-fdelrinHalfAngle6);
+ G4double firb6 = pow(pow(distanceFromTarget6+detThickness6+lgThickness6,2)+pow(delrinB6/2,2),0.5)*sin(theta6+fdelrinHalfAngle6);
+ G4double bdelrinHalfAngle6 = atan(delrinB6/2/(distanceFromTarget6+detThickness6+lgThickness6+delrinA6));
+ G4double birs6 = pow(pow(distanceFromTarget6+detThickness6+lgThickness6+delrinA6,2)+pow(delrinB6/2,2),0.5)*sin(theta6-bdelrinHalfAngle6);
+ G4double birb6 = pow(pow(distanceFromTarget6+detThickness6+lgThickness6+delrinA6,2)+pow(delrinB6/2,2),0.5)*sin(theta6+bdelrinHalfAngle6);
+
+ G4double delrin_dz6 = delrinB6/2;
+ G4double delrin_theta6 = 0;
+ G4double delrin_phi6 = 0;
+ G4double delrin_dyab6 = delrinA6/2;
+ G4double delrin_dxa6 = firs6*tan(180*deg/detNum6);
+ G4double delrin_dxb6 = birs6*tan(180*deg/detNum6);
+ G4double delrin_dycd6 = delrinA6/2;
+ G4double delrin_dxc6 = firb6*tan(180*deg/detNum6);
+ G4double delrin_dxd6 = birb6*tan(180*deg/detNum6);
+ G4double delrin_alpab6 = 0;
+ G4double delrin_alpcd6 = delrin_alpab6;
+
+
+ G4ThreeVector delrin_pos6 = G4ThreeVector(0,0,distanceFromTarget6*cos(theta6));
+
+ G4Trap* solidDelrin6 =
+ new G4Trap("Delrin6", //its name
+ delrin_dz6,
+ delrin_theta6, delrin_phi6,
+ delrin_dyab6,
+ delrin_dxa6, delrin_dxb6,
+ delrin_alpab6,
+ delrin_dycd6,
+ delrin_dxc6, delrin_dxd6,
+ delrin_alpcd6); //its size
+
+ G4LogicalVolume* logicDelrin6 =
+ new G4LogicalVolume(solidDelrin6, //its solid
+ delrin, //its material
+ "Delrin6"); //its name
+ logicDelrin6->SetVisAttributes(delrinVisAtt);
+
+
+ /*
+ //
+ // CsI Detector for deletion
+ //
+ G4double crystal_rmina6 = distance6/cos(halfTheta6);
+ G4double crystal_rmaxa6 = distance6/cos(halfTheta6)+2*distance6*tan(halfTheta6);
+ G4double crystal_rminb6 = (distance6+detThickness6)/cos(halfTheta6);
+ G4double crystal_rmaxb6 = (distance6+detThickness6)/cos(halfTheta6)+2*(distance6+detThickness6)*tan(halfTheta6);
+ G4double crystal_hz6 = 0.5*pow(pow(detThickness6,2)+pow((crystal_rminb6+crystal_rmaxb6-crystal_rmina6-crystal_rmaxa6)/2,2),0.5);
+ //G4double crystal_hz6 = 0.5*detThickness6;
+ G4double crystal_phimin6 = 0.*deg, crystal_phimax6 = 360.*deg/detNum6;
+
+
+ G4Cons* solidCrystal6 =
+ new G4Cons("Crystal6", //its name
+ crystal_rmina6, crystal_rmaxa6,
+ crystal_rminb6, crystal_rmaxb6,
+ crystal_hz6,
+ crystal_phimin6, crystal_phimax6); //its size
+
+ G4LogicalVolume* logicCrystal6 =
+ new G4LogicalVolume(solidCrystal6, //its solid
+ CsI, //its material
+ "CsI Detector6"); //its name
+ logicCrystal6->SetVisAttributes(crystalVisAtt);
+ */
+
+ G4double crystal_dxa6 = distanceFromTarget6*tan(halfTheta6);
+ G4double crystal_dxb6 = (distanceFromTarget6+detThickness6)*tan(halfTheta6);
+ G4double crystal_dya6 = distanceFromTarget6*tan(0.5*360*deg/detNum6);
+ G4double crystal_dyb6 = (distanceFromTarget6+detThickness6)*tan(0.5*360*deg/detNum6);
+ G4double crystal_dz = 0.5*detThickness6;
+
+ G4Trd* solidCrystal6 =
+ new G4Trd("Crystal6", //its name
+ crystal_dxa6, crystal_dxb6,
+ crystal_dya6, crystal_dyb6,
+ crystal_dz); //its size
+ G4LogicalVolume* logicCrystal6 =
+ new G4LogicalVolume(solidCrystal6, //its solid
+ CsI, //its material
+ "CsI Detector6"); //its name
+ logicCrystal6->SetVisAttributes(crystalVisAtt);
+ logicCrystal6->SetSensitiveDetector(m_MicroballScorer);
+ //
+ // Light Guide
+ //
+ G4double lightGuide_px6 = 10*mm;
+ G4double lightGuide_py6 = 10*mm;
+ G4double lightGuide_pz6 = lgThickness6;
+ G4Box* solidLightGuide6 =
+ new G4Box("LightGuide6", //its name
+ 0.5*lightGuide_px6,
+ 0.5*lightGuide_py6,
+ 0.5*lightGuide_pz6); //its size
+
+ G4LogicalVolume* logicLightGuide6 =
+ new G4LogicalVolume(solidLightGuide6, //its solid
+ glass, //its material
+ "LightGuide6"); //its name
+ logicLightGuide6->SetVisAttributes(lightGuideVisAtt);
+
+
+ for(int i = 1; i <= detNum6; i++)
+ {
+ G4RotationMatrix crystal_rotm = G4RotationMatrix();
+ /*
+ G4RotationMatrix abc6 = G4RotationMatrix();
+ G4RotationMatrix def6 = G4RotationMatrix();
+ G4ThreeVector a6 = G4ThreeVector(pow(sin(i*360*deg/detNum6),2), -sin(i*360*deg/detNum6)*cos(i*360*deg/detNum6), cos(i*360*deg/detNum6));
+ G4ThreeVector b6 = G4ThreeVector(-sin(i*360*deg/detNum6)*cos(i*360*deg/detNum6), pow(cos(i*360*deg/detNum6),2), sin(i*360*deg/detNum6));
+ G4ThreeVector c6 = G4ThreeVector(-cos(i*360*deg/detNum6), -sin(i*360*deg/detNum6), 0);
+ abc6.setRows(a6,b6,c6);
+ G4double k= (i-1)*360*deg/detNum6+0.5*360*deg/detNum6;
+ G4ThreeVector d6 = G4ThreeVector(cos(k)+pow(cos(i*360*deg/detNum6),2)*(1-cos(k)),
+ cos(i*360*deg/detNum6)*sin(i*360*deg/detNum6)*(1-cos(k)),
+ sin(i*360*deg/detNum6)*sin(k));
+ G4ThreeVector e6 = G4ThreeVector(cos(i*360*deg/detNum6)*sin(i*360*deg/detNum6)*(1-cos(k)),
+ cos(k)+pow(sin(i*360*deg/detNum6),2)*(1-cos(k)),
+ -cos(i*360*deg/detNum6)*sin(k));
+ G4ThreeVector f6 = G4ThreeVector(-sin(i*360*deg/detNum6)*sin(k),
+ cos(i*360*deg/detNum6)*sin(k),
+ cos(k));
+ def6.setRows(d6,e6,f6);
+ crystal_rotm = def6*abc6;
+ */
+ G4ThreeVector z6 = G4ThreeVector(0,0,1);
+ G4ThreeVector df6 = G4ThreeVector(cos((i-1)*360*deg/detNum6+0.5*360*deg/detNum6),
+ sin((i-1)*360*deg/detNum6+0.5*360*deg/detNum6),
+ 0);
+ G4ThreeVector unitAxis6 = z6.cross(df6);
+ unitAxis6 = unitAxis6/unitAxis6.mag();
+ G4double ux6 = unitAxis6.x();
+ G4double uy6 = unitAxis6.y();
+ G4double uz6 = unitAxis6.z();
+ G4double angle6 = acos(z6.dot(df6)/(z6.mag()*df6.mag()));
+ G4ThreeVector a6 = G4ThreeVector(cos(angle6)+pow(ux6,2)*(1-cos(angle6)), ux6*uy6*(1-cos(angle6))-uz6*sin(angle6), ux6*uz6*(1-cos(angle6))+uy6*sin(angle6));
+ G4ThreeVector b6 = G4ThreeVector(uy6*ux6*(1-cos(angle6))+uz6*sin(angle6), cos(angle6)+pow(uy6,2)*(1-cos(angle6)), uy6*uz6*(1-cos(angle6))-ux6*sin(angle6));
+ G4ThreeVector c6 = G4ThreeVector(uz6*ux6*(1-cos(angle6))-uy6*sin(angle6), uz6*uy6*(1-cos(angle6))+ux6*sin(angle6), cos(angle6)+pow(uz6,2)*(1-cos(angle6)));
+ G4RotationMatrix abc6 = G4RotationMatrix();
+ abc6.setRows(a6,b6,c6);
+ crystal_rotm.rotateZ((i-1)*360*deg/detNum6+0.5*360*deg/detNum6);
+ crystal_rotm=abc6*crystal_rotm;
+ crystal_rotm.rotateZ(0*deg-4*360/14*deg);
+ G4ThreeVector crystal_pos = G4ThreeVector((distanceFromTarget6+0.5*detThickness6)*cos((i-1)*360*deg/detNum6+0.5*360*deg/detNum6),
+ (distanceFromTarget6+0.5*detThickness6)*sin((i-1)*360*deg/detNum6+0.5*360*deg/detNum6),
+ 0)+delrin_pos6;
+ crystal_pos.rotateZ(0*deg-4*360/14*deg);
+ if (m_Flip == 1){
+ crystal_pos.setX(-crystal_pos.x());
+ crystal_rotm.rotateY(180*deg);
+ }
+ G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
+ G4RotationMatrix lg_rotm = G4RotationMatrix();
+ G4ThreeVector df = G4ThreeVector(distanceFromTarget6*sin(theta6)*sin((i-1)*360*deg/detNum6/*+0.5*360*deg/detNum6*/),
+ distanceFromTarget6*sin(theta6)*cos((i-1)*360*deg/detNum6/*+0.5*360*deg/detNum6*/),
+ -distanceFromTarget6*cos(theta6));
+ G4ThreeVector lg_Axis = df.cross(z6);
+ lg_Axis = lg_Axis/lg_Axis.mag();
+ lg_Axis.rotateZ(180*deg);
+ G4double ulgx = lg_Axis.x();
+ G4double ulgy = lg_Axis.y();
+ G4double ulgz = lg_Axis.z();
+ G4ThreeVector p = G4ThreeVector(cos(theta6)+pow(ulgx,2)*(1-cos(theta6)), ulgx*ulgy*(1-cos(theta6))-ulgz*sin(theta6), ulgx*ulgz*(1-cos(theta6))+ulgy*sin(theta6));
+ G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta6))+ulgz*sin(theta6), cos(theta6)+pow(ulgy,2)*(1-cos(theta6)), ulgy*ulgz*(1-cos(theta6))-ulgx*sin(theta6));
+ G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta6))-ulgy*sin(theta6), ulgz*ulgy*(1-cos(theta6))+ulgx*sin(theta6), cos(theta6)+pow(ulgz,2)*(1-cos(theta6)));
+ G4RotationMatrix pqr = G4RotationMatrix();
+ pqr.setRows(p,q,r);
+ lg_rotm.rotateZ((i-1)*360*deg/detNum6);
+ lg_rotm.rotateX(180*deg);
+ lg_rotm=pqr*lg_rotm;
+ G4ThreeVector lg_pos = (distanceFromTarget6+detThickness6+0.5*lgThickness6+.09*mm)/df.mag()*df; //the .09 mm is a fudge factor to prevent overlapping.
+ lg_pos.rotateZ(180*deg);
+ if (m_Flip == 0){
+ lg_pos.rotateY(180*deg);
+ lg_rotm.rotateY(180*deg);
+ }
+ G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
+ G4RotationMatrix delrin_rotm = G4RotationMatrix();
+ G4ThreeVector w = G4ThreeVector(sin(theta6)*sin((i-1)*360*deg/detNum6+.001*deg), sin(theta6)*cos((i-1)*360*deg/detNum6+.001*deg), cos(theta6));
+ G4ThreeVector delrin_Axis = w.cross(z6);
+ delrin_Axis = delrin_Axis/delrin_Axis.mag();
+ G4double udx = delrin_Axis.x();
+ G4double udy = delrin_Axis.y();
+ G4double udz = delrin_Axis.z();
+ G4double delAng = 0*deg;//90*deg+theta6;
+ G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
+ G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
+ G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
+ G4RotationMatrix pqrdel = G4RotationMatrix();
+ pqrdel.setRows(pdel,qdel,rdel);
+ delrin_rotm.rotateZ((i-1)*360*deg/detNum6+.001*deg);
+ delrin_rotm=pqrdel*delrin_rotm;
+ delrin_rotm.rotateZ(180*deg);
+ G4ThreeVector delrin_pos = (distanceFromTarget6+detThickness6+lgThickness6+delrinA6/2+.0904*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
+ delrin_pos.rotateZ(180*deg);
+ delrin_pos.rotateY(180*deg);
+ if (m_Flip == 1){
+ delrin_pos.rotateY(180*deg);
+ delrin_rotm.rotateY(180*deg);
+ }
+ G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
+ bool placeCrystal = true;
+ for (unsigned int i2=0; i2 < m_Array.size(); i2++){
+ /*if(54 < m_Array[i2] && m_Array[i2] < 58){
+ if (55+57-m_Array[i2] == 54+i){
+ placeCrystal = false;
+ }
+ }
+ if(57 < m_Array[i2] && m_Array[i2] < 69){
+ if (58+68-m_Array[i2] == 54+i){
+ placeCrystal = false;
+ }
+ }*/
+ if (54 < m_Array[i2] && m_Array[i2] < 69){
+ if (m_Array[i2] == 54 +(i -detNum6/2)%detNum6){
+ placeCrystal = false;
+ }else if (m_Array[i2] == 54 +(i -detNum6/2)%detNum6 +detNum6){
+ placeCrystal = false;
+ }
+ }
+ }
+ if (placeCrystal){
+ if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
+ logicCrystal6, //its logical volume
+ "CsI Detector6", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 54+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
+ logicLightGuide6, //its logical volume
+ "LightGuide6", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 54+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
+ logicDelrin6, //its logical volume
+ "Delrin6", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 54+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ }}
+
+ if(m_Ring7){
+ // Ring 7 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~ lg pseudofixed
+ G4int detNum7 = 12;
+ G4double distanceFromTargetBack7 = 45.*mm;
+ G4double theta7 = 111.5*deg;
+ G4double halfTheta7 = 11.5*deg;//-0.1*deg; //fudge factor
+ G4double lgThickness7 = 7.0*mm;
+ G4double detThickness7 = 4.1*mm;
+ G4double distanceFromTarget7 = distanceFromTargetBack7 - detThickness7;
+
+ //G4double distance7 = distanceFromTarget7*sin(theta7); //this gives the distance from the beam axis.
+
+ /*
+ //
+ // Delrin Ring (for deletion)
+ //
+ G4double delrin_rmina7 = distance7+detThickness7+lgThickness7, delrin_rmaxa7 = delrin_rmina7+5*mm;
+ G4double delrin_hz7 = 5*mm; //distance7*tan(halfTheta7);
+ G4double delrin_phimin7 = 0.*deg, delrin_phimax7 = 360.*deg;
+ G4ThreeVector delrin_pos7 = G4ThreeVector(0,0,distanceFromTarget7*cos(theta7)); //G4ThreeVector(0,0,distance7+lgThickness7+detThickness7*sin(theta7));
+
+ G4Tubs* solidDelrin7 =
+ new G4Tubs("Delrin7", //its name
+ delrin_rmina7, delrin_rmaxa7,
+ delrin_hz7,
+ delrin_phimin7, delrin_phimax7); //its size
+
+ G4LogicalVolume* logicDelrin7 =
+ new G4LogicalVolume(solidDelrin7, //its solid
+ delrin, //its material
+ "Delrin7"); //its name
+ logicDelrin7->SetVisAttributes(delrinVisAtt);
+
+ if(delrinBool) {new G4PVPlacement(0, //no rotation
+ delrin_pos7, //its position
+ logicDelrin7, //its logical volume
+ "Delrin7", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 0, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ */
+ //
+ // Delrin Ring
+ //
+ G4double delrinA7 = 5*mm;
+ G4double delrinB7 = 10*mm;
+ G4double fdelrinHalfAngle7 = atan(delrinB7/2/(distanceFromTarget7+detThickness7+lgThickness7));
+ G4double firs7 = pow(pow(distanceFromTarget7+detThickness7+lgThickness7,2)+pow(delrinB7/2,2),0.5)*sin(theta7-fdelrinHalfAngle7);
+ G4double firb7 = pow(pow(distanceFromTarget7+detThickness7+lgThickness7,2)+pow(delrinB7/2,2),0.5)*sin(theta7+fdelrinHalfAngle7);
+ G4double bdelrinHalfAngle7 = atan(delrinB7/2/(distanceFromTarget7+detThickness7+lgThickness7+delrinA7));
+ G4double birs7 = pow(pow(distanceFromTarget7+detThickness7+lgThickness7+delrinA7,2)+pow(delrinB7/2,2),0.5)*sin(theta7-bdelrinHalfAngle7);
+ G4double birb7 = pow(pow(distanceFromTarget7+detThickness7+lgThickness7+delrinA7,2)+pow(delrinB7/2,2),0.5)*sin(theta7+bdelrinHalfAngle7);
+
+ G4double delrin_dz7 = delrinB7/2;
+ G4double delrin_theta7 = 0;
+ G4double delrin_phi7 = 0;
+ G4double delrin_dyab7 = delrinA7/2;
+ G4double delrin_dxa7 = firs7*tan(180*deg/detNum7);
+ G4double delrin_dxb7 = birs7*tan(180*deg/detNum7);
+ G4double delrin_dycd7 = delrinA7/2;
+ G4double delrin_dxc7 = firb7*tan(180*deg/detNum7);
+ G4double delrin_dxd7 = birb7*tan(180*deg/detNum7);
+ G4double delrin_alpab7 = 0;
+ G4double delrin_alpcd7 = delrin_alpab7;
+
+ G4ThreeVector delrin_pos7 = G4ThreeVector(0,0,distanceFromTarget7*cos(theta7));
+
+ G4Trap* solidDelrin7 =
+ new G4Trap("Delrin7", //its name
+ delrin_dz7,
+ delrin_theta7, delrin_phi7,
+ delrin_dyab7,
+ delrin_dxa7, delrin_dxb7,
+ delrin_alpab7,
+ delrin_dycd7,
+ delrin_dxc7, delrin_dxd7,
+ delrin_alpcd7); //its size
+
+ G4LogicalVolume* logicDelrin7 =
+ new G4LogicalVolume(solidDelrin7, //its solid
+ delrin, //its material
+ "Delrin7"); //its name
+ logicDelrin7->SetVisAttributes(delrinVisAtt);
+
+ //
+ // CsI Detector
+ //
+ G4double coneheight7 = 0.6*distanceFromTarget7;
+ G4double flatheight7 = coneheight7 -0.01*mm;
+ G4double coneangle7 = theta7;
+ G4double crystal_rmina7 = -(coneheight7-flatheight7)*tan(coneangle7+halfTheta7);
+ G4double crystal_rmaxa7 = -(coneheight7-flatheight7)*tan(coneangle7-halfTheta7);
+ G4double crystal_rminb7 = -coneheight7*tan(coneangle7+halfTheta7);
+ G4double crystal_rmaxb7 = -coneheight7*tan(coneangle7-halfTheta7);
+ G4double crystal_hz7 = 0.5*flatheight7;//(crystal_rmaxb7-crystal_rmaxa7)/crystal_rmaxb7*coneheight7;
+ G4double crystal_phimin7 = 0.*deg, crystal_phimax7 = 360.*deg/detNum7;
+ G4RotationMatrix tip_rotm7 = G4RotationMatrix();
+ G4ThreeVector tip_pos7 = G4ThreeVector(0,0,0.5*flatheight7+(coneheight7-flatheight7)); //last term is a fudge
+ G4Transform3D tip_trans7 = G4Transform3D(tip_rotm7, tip_pos7);
+ G4ThreeVector z7 = G4ThreeVector(0,0,1);
+ G4ThreeVector d07 = G4ThreeVector(distanceFromTarget7*sin(coneangle7)*cos(0.5*360*deg/detNum7),
+ distanceFromTarget7*sin(coneangle7)*sin(0.5*360*deg/detNum7),
+ -distanceFromTarget7*cos(coneangle7));
+ G4ThreeVector unitAxis7 = z7.cross(d07);
+ unitAxis7 = unitAxis7/unitAxis7.mag();
+ G4double ux7 = unitAxis7.x();
+ G4double uy7 = unitAxis7.y();
+ G4double uz7 = unitAxis7.z();
+ G4ThreeVector top7 = G4ThreeVector(cos(-coneangle7)+pow(ux7,2)*(1-cos(-coneangle7)), ux7*uy7*(1-cos(-coneangle7))-uz7*sin(-coneangle7), ux7*uz7*(1-cos(-coneangle7))+uy7*sin(-coneangle7));
+ G4ThreeVector mid7 = G4ThreeVector(uy7*ux7*(1-cos(-coneangle7))+uz7*sin(-coneangle7), cos(-coneangle7)+pow(uy7,2)*(1-cos(-coneangle7)), uy7*uz7*(1-cos(-coneangle7))-ux7*sin(-coneangle7));
+ G4ThreeVector bot7 = G4ThreeVector(uz7*ux7*(1-cos(-coneangle7))-uy7*sin(-coneangle7), uz7*uy7*(1-cos(-coneangle7))+ux7*sin(-coneangle7), cos(-coneangle7)+pow(uz7,2)*(1-cos(-coneangle7)));
+ G4RotationMatrix firstBox_rotm7 = G4RotationMatrix();
+ firstBox_rotm7.setRows(top7,mid7,bot7);
+ G4ThreeVector firstBox_pos7 = G4ThreeVector(0,0,0);
+ G4Transform3D firstBox_trans7 = G4Transform3D(firstBox_rotm7, firstBox_pos7);
+ G4RotationMatrix secondBox_rotm7 = G4RotationMatrix();
+ secondBox_rotm7.setRows(top7,mid7,bot7);
+ G4ThreeVector secondBox_pos7 = (3*distanceFromTarget7+detThickness7)/distanceFromTarget7*d07;
+ G4Transform3D secondBox_trans7 = G4Transform3D(secondBox_rotm7, secondBox_pos7);
+
+ G4Orb* solidTip7 =
+ new G4Orb("tip7",
+ .0001*mm);
+ G4Box* solidSubtractionBox7 =
+ new G4Box("SubtractionBox7", //its name
+ distanceFromTarget7,
+ distanceFromTarget7,
+ distanceFromTarget7); //its size
+ G4Box* solidSecondSubtractionBox7 =
+ new G4Box("SecondSubtractionBox7", //its name
+ 2*distanceFromTarget7,
+ 2*distanceFromTarget7,
+ 2*distanceFromTarget7); //its size
+ G4Cons* solidCone7 =
+ new G4Cons("Cone7", //its name
+ crystal_rmina7, crystal_rmaxa7,
+ crystal_rminb7, crystal_rmaxb7,
+ crystal_hz7,
+ crystal_phimin7, crystal_phimax7); //its size
+ G4UnionSolid* solidTippedCone7 =
+ new G4UnionSolid("TippedCone7",
+ solidTip7,
+ solidCone7,
+ tip_trans7);
+ G4SubtractionSolid* solidIntermediate7 =
+ new G4SubtractionSolid("Intermediate7",
+ solidTippedCone7,
+ solidSubtractionBox7,
+ firstBox_trans7);
+ G4SubtractionSolid* solidCrystal7 =
+ new G4SubtractionSolid("Crystal7",
+ solidIntermediate7,
+ solidSecondSubtractionBox7,
+ secondBox_trans7);
+
+ G4LogicalVolume* logicCrystal7 =
+ new G4LogicalVolume(solidCrystal7, //its solid
+ CsI, //its material
+ "CsI Detector7"); //its name
+ logicCrystal7->SetVisAttributes(crystalVisAtt);
+ logicCrystal7->SetSensitiveDetector(m_MicroballScorer);
+ //
+ // Light Guide
+ //
+ G4double lightGuide_px7 = 10*mm;
+ G4double lightGuide_py7 = 10*mm;
+ G4double lightGuide_pz7 = lgThickness7;
+ G4Box* solidLightGuide7 =
+ new G4Box("LightGuide7", //its name
+ 0.5*lightGuide_px7,
+ 0.5*lightGuide_py7,
+ 0.5*lightGuide_pz7); //its size
+
+ G4LogicalVolume* logicLightGuide7 =
+ new G4LogicalVolume(solidLightGuide7, //its solid
+ glass, //its material
+ "LightGuide7"); //its name
+ logicLightGuide7->SetVisAttributes(lightGuideVisAtt);
+
+
+ for(int i = 1; i <= detNum7; i++)
+ {
+ G4RotationMatrix crystal_rotm = G4RotationMatrix();
+ G4ThreeVector d0 = G4ThreeVector(distanceFromTarget7*sin(coneangle7)*cos(0.5*360*deg/detNum7),
+ distanceFromTarget7*sin(coneangle7)*sin(0.5*360*deg/detNum7),
+ distanceFromTarget7*cos(coneangle7));
+ G4ThreeVector df = G4ThreeVector(distanceFromTarget7*sin(theta7)*sin((i-1)*360*deg/detNum7+.001*deg/*+0.5*360*deg/detNum7*/),
+ distanceFromTarget7*sin(theta7)*cos((i-1)*360*deg/detNum7+.001*deg/*+0.5*360*deg/detNum7*/),
+ -distanceFromTarget7*cos(theta7));
+ df.setX(-df.x());
+ G4ThreeVector axis = d0.cross(df);
+ G4double ax = axis.x();
+ G4double ay = axis.y();
+ G4double az = axis.z();
+ G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
+ G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
+ G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
+ G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
+ G4RotationMatrix abc = G4RotationMatrix();
+ abc.setRows(a,b,c);
+ G4ThreeVector unitdf = df/df.mag();
+ G4double udfx = unitdf.x();
+ G4double udfy = unitdf.y();
+ G4double udfz = unitdf.z();
+ G4double k = 180.*deg;
+ G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
+ G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
+ G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
+ G4RotationMatrix def = G4RotationMatrix();
+ def.setRows(d,e,f);
+ crystal_rotm=def*abc;
+ if (m_Flip == 1){
+ crystal_rotm.rotateY(180*deg);
+ }
+ crystal_rotm.rotateZ(180*deg);
+ G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
+ G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
+ df.setX(-df.x());
+ G4RotationMatrix lg_rotm = G4RotationMatrix();
+ G4ThreeVector lg_Axis = df.cross(z7);
+ lg_Axis = lg_Axis/lg_Axis.mag();
+ lg_Axis.rotateZ(180*deg);
+ G4double ulgx = lg_Axis.x();
+ G4double ulgy = lg_Axis.y();
+ G4double ulgz = lg_Axis.z();
+ G4double lg_ang = theta7;
+ G4ThreeVector p = G4ThreeVector(cos(lg_ang)+pow(ulgx,2)*(1-cos(lg_ang)), ulgx*ulgy*(1-cos(lg_ang))-ulgz*sin(lg_ang), ulgx*ulgz*(1-cos(lg_ang))+ulgy*sin(lg_ang));
+ G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(lg_ang))+ulgz*sin(lg_ang), cos(lg_ang)+pow(ulgy,2)*(1-cos(lg_ang)), ulgy*ulgz*(1-cos(lg_ang))-ulgx*sin(lg_ang));
+ G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(lg_ang))-ulgy*sin(lg_ang), ulgz*ulgy*(1-cos(lg_ang))+ulgx*sin(lg_ang), cos(lg_ang)+pow(ulgz,2)*(1-cos(lg_ang)));
+ G4RotationMatrix pqr = G4RotationMatrix();
+ pqr.setRows(p,q,r);
+ lg_rotm.rotateZ((i-1)*360*deg/detNum7);
+ lg_rotm.rotateX(180*deg);
+ lg_rotm=pqr*lg_rotm;
+ G4ThreeVector lg_pos = (distanceFromTarget7+detThickness7+0.5*lgThickness7+.0003*mm)/df.mag()*df;
+ lg_pos.rotateZ(180*deg);
+ if (m_Flip == 0){
+ lg_pos.rotateY(180*deg);
+ lg_rotm.rotateY(180*deg);
+ }
+ G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
+ G4RotationMatrix delrin_rotm = G4RotationMatrix();
+ G4ThreeVector w = G4ThreeVector(sin(theta7)*sin((i-1)*360*deg/detNum7+.001*deg), sin(theta7)*cos((i-1)*360*deg/detNum7+.001*deg), cos(theta7));
+ G4ThreeVector delrin_Axis = w.cross(z7);
+ delrin_Axis.rotateX(180*deg);
+ delrin_Axis = delrin_Axis/delrin_Axis.mag();
+ G4double udx = delrin_Axis.x();
+ G4double udy = delrin_Axis.y();
+ G4double udz = delrin_Axis.z();
+ G4double delAng = -90*deg+theta7;
+ G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
+ G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
+ G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
+ G4RotationMatrix pqrdel = G4RotationMatrix();
+ pqrdel.setRows(pdel,qdel,rdel);
+ delrin_rotm.rotateZ((-i+1)*360*deg/detNum7+.001*deg);
+ delrin_rotm.rotateX(180*deg);
+ delrin_rotm=pqrdel*delrin_rotm;
+ delrin_rotm.rotateZ(0*deg);
+ G4ThreeVector delrin_pos = (distanceFromTarget7+detThickness7+lgThickness7+delrinA7/2+.0005*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
+ delrin_pos.rotateZ(180*deg);
+ delrin_pos.rotateY(180*deg);
+ if (m_Flip == 1){
+ delrin_pos.rotateY(180*deg);
+ delrin_rotm.rotateY(180*deg);
+ }
+ G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
+ bool placeCrystal = true;
+ for (unsigned int i2=0; i2 < m_Array.size(); i2++){
+ if (68 < m_Array[i2] && m_Array[i2] < 81){
+ /*if (m_Array[i2] == 69 && 68+i == 80){
+ placeCrystal = false;
+ }
+ else if(68+m_Array[i2]%69 == 68+i){
+ placeCrystal = false;
+ }
+ if (m_Array[i2] == 68+i){
+ placeDel = false;
+ }*/
+ if (m_Array[i2] == 68 +(i -detNum7/2)%detNum7){
+ placeCrystal = false;
+ }else if (m_Array[i2] == 68 +(i -detNum7/2)%detNum7 +detNum7){
+ placeCrystal = false;
+ }
+ }
+ }
+ if (placeCrystal){
+ if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
+ logicCrystal7, //its logical volume
+ "CsI Detector7", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 68+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ if(placeCrystal){
+ if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
+ logicLightGuide7, //its logical volume
+ "LightGuide7", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 68+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
+ logicDelrin7, //its logical volume
+ "Delrin7", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 68+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ }}
+
+
+ if(m_Ring8) {
+ // Ring 8 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
+ G4int detNum8 = 10;
+ G4double distanceFromTargetBack8 = 47*mm; //Its really 47 mm from the target, but at 45.9 we avoid intersection the detectors in ring 9
+ G4double theta8 = 135.0*deg;
+ G4double halfTheta8 = 12.0*deg;// -0.1*deg; //fudge factor
+ G4double lgThickness8 = 7.5*mm;
+ G4double detThickness8 = 3.6*mm;
+ G4double distanceFromTarget8 = distanceFromTargetBack8 - detThickness8;
+
+ //G4double distance8 = distanceFromTarget8*sin(theta8); //this gives the distance from the beam axis.
+ /*
+ //
+ // Delrin Ring (for deletion)
+ //
+ G4double delrin_rmina8 = distance8+detThickness8+lgThickness8, delrin_rmaxa8 = delrin_rmina8+5*mm;
+ G4double delrin_hz8 = 5*mm; //distance8*tan(halfTheta8);
+ G4double delrin_phimin8 = 0.*deg, delrin_phimax8 = 360.*deg;
+ G4ThreeVector delrin_pos8 = G4ThreeVector(0,0,distanceFromTarget8*cos(theta8)); //G4ThreeVector(0,0,distance8+lgThickness8+detThickness8*sin(theta8));
+
+ G4Tubs* solidDelrin8 =
+ new G4Tubs("Delrin8", //its name
+ delrin_rmina8, delrin_rmaxa8,
+ delrin_hz8,
+ delrin_phimin8, delrin_phimax8); //its size
+
+ G4LogicalVolume* logicDelrin8 =
+ new G4LogicalVolume(solidDelrin8, //its solid
+ delrin, //its material
+ "Delrin8"); //its name
+ logicDelrin8->SetVisAttributes(delrinVisAtt);
+
+ if(delrinBool) {new G4PVPlacement(0, //no rotation
+ delrin_pos8, //its position
+ logicDelrin8, //its logical volume
+ "Delrin8", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 0, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ */
+ //
+ // Delrin Ring
+ //
+ G4double delrinA8 = 5*mm;
+ G4double delrinB8 = 10*mm;
+ G4double fdelrinHalfAngle8 = atan(delrinB8/2/(distanceFromTarget8+detThickness8+lgThickness8));
+ G4double firs8 = pow(pow(distanceFromTarget8+detThickness8+lgThickness8,2)+pow(delrinB8/2,2),0.5)*sin(theta8-fdelrinHalfAngle8);
+ G4double firb8 = pow(pow(distanceFromTarget8+detThickness8+lgThickness8,2)+pow(delrinB8/2,2),0.5)*sin(theta8+fdelrinHalfAngle8);
+ G4double bdelrinHalfAngle8 = atan(delrinB8/2/(distanceFromTarget8+detThickness8+lgThickness8+delrinA8));
+ G4double birs8 = pow(pow(distanceFromTarget8+detThickness8+lgThickness8+delrinA8,2)+pow(delrinB8/2,2),0.5)*sin(theta8-bdelrinHalfAngle8);
+ G4double birb8 = pow(pow(distanceFromTarget8+detThickness8+lgThickness8+delrinA8,2)+pow(delrinB8/2,2),0.5)*sin(theta8+bdelrinHalfAngle8);
+
+ G4double delrin_dz8 = delrinB8/2;
+ G4double delrin_theta8 = 0;
+ G4double delrin_phi8 = 0;
+ G4double delrin_dyab8 = delrinA8/2;
+ G4double delrin_dxa8 = firs8*tan(180*deg/detNum8);
+ G4double delrin_dxb8 = birs8*tan(180*deg/detNum8);
+ G4double delrin_dycd8 = delrinA8/2;
+ G4double delrin_dxc8 = firb8*tan(180*deg/detNum8);
+ G4double delrin_dxd8 = birb8*tan(180*deg/detNum8);
+ G4double delrin_alpab8 = 0;
+ G4double delrin_alpcd8 = delrin_alpab8;
+
+ G4ThreeVector delrin_pos8 = G4ThreeVector(0,0,distanceFromTarget8*cos(theta8));
+
+ G4Trap* solidDelrin8 =
+ new G4Trap("Delrin8", //its name
+ delrin_dz8,
+ delrin_theta8, delrin_phi8,
+ delrin_dyab8,
+ delrin_dxa8, delrin_dxb8,
+ delrin_alpab8,
+ delrin_dycd8,
+ delrin_dxc8, delrin_dxd8,
+ delrin_alpcd8); //its size
+
+ G4LogicalVolume* logicDelrin8 =
+ new G4LogicalVolume(solidDelrin8, //its solid
+ delrin, //its material
+ "Delrin8"); //its name
+ logicDelrin8->SetVisAttributes(delrinVisAtt);
- if(m_Ring9){
- // Ring 9 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
- G4int detNum9 = 6;
- G4double distanceFromTargetBack9 = 50.*mm;
- G4double theta9 = 159.0*deg;
- G4double halfTheta9 = 12.0*deg;//-0.1*deg; //fudge factor
- G4double lgThickness9 = 8.0*mm;
- G4double detThickness9 = 3.5*mm;
- G4double distanceFromTarget9 = distanceFromTargetBack9 - detThickness9;
-
- //G4double distance9 = distanceFromTarget9*sin(theta9); //this gives the distance from the beam axis.
-
- /*
- //
- // Delrin Ring (for deletion)
- //
- G4double delrin_rmina9 = distance9+detThickness9+lgThickness9, delrin_rmaxa9 = delrin_rmina9+5*mm;
- G4double delrin_hz9 = 5*mm; //distance9*tan(halfTheta9);
- G4double delrin_phimin9 = 0.*deg, delrin_phimax9 = 360.*deg;
- G4ThreeVector delrin_pos9 = G4ThreeVector(0,0,distanceFromTarget9*cos(theta9)); //G4ThreeVector(0,0,distance9+lgThickness9+detThickness9*sin(theta9));
-
- G4Tubs* solidDelrin9 =
- new G4Tubs("Delrin9", //its name
- delrin_rmina9, delrin_rmaxa9,
- delrin_hz9,
- delrin_phimin9, delrin_phimax9); //its size
-
- G4LogicalVolume* logicDelrin9 =
- new G4LogicalVolume(solidDelrin9, //its solid
- delrin, //its material
- "Delrin9"); //its name
- logicDelrin9->SetVisAttributes(delrinVisAtt);
-
- if(delrinBool) {new G4PVPlacement(0, //no rotation
- delrin_pos9, //its position
- logicDelrin9, //its logical volume
- "Delrin9", //its name
- world, //its mother volume
- false, //no boolean operation
- 0, //copy number
- checkOverlaps); //overlaps checking
- }
- */
-
- //
- // Delrin Ring
- //
- G4double delrinA9 = 5*mm;
- G4double delrinB9 = 10*mm;
- G4double fdelrinHalfAngle9 = atan(delrinB9/2/(distanceFromTarget9+detThickness9+lgThickness9));
- G4double firs9 = pow(pow(distanceFromTarget9+detThickness9+lgThickness9,2)+pow(delrinB9/2,2),0.5)*sin(theta9-fdelrinHalfAngle9);
- G4double firb9 = pow(pow(distanceFromTarget9+detThickness9+lgThickness9,2)+pow(delrinB9/2,2),0.5)*sin(theta9+fdelrinHalfAngle9);
- G4double bdelrinHalfAngle9 = atan(delrinB9/2/(distanceFromTarget9+detThickness9+lgThickness9+delrinA9));
- G4double birs9 = pow(pow(distanceFromTarget9+detThickness9+lgThickness9+delrinA9,2)+pow(delrinB9/2,2),0.5)*sin(theta9-bdelrinHalfAngle9);
- G4double birb9 = pow(pow(distanceFromTarget9+detThickness9+lgThickness9+delrinA9,2)+pow(delrinB9/2,2),0.5)*sin(theta9+bdelrinHalfAngle9);
-
- G4double delrin_dz9 = delrinB9/2;
- G4double delrin_theta9 = 0;
- G4double delrin_phi9 = 0;
- G4double delrin_dyab9 = delrinA9/2;
- G4double delrin_dxa9 = firs9*tan(180*deg/detNum9);
- G4double delrin_dxb9 = birs9*tan(180*deg/detNum9);
- G4double delrin_dycd9 = delrinA9/2;
- G4double delrin_dxc9 = firb9*tan(180*deg/detNum9);
- G4double delrin_dxd9 = birb9*tan(180*deg/detNum9);
- G4double delrin_alpab9 = 0;
- G4double delrin_alpcd9 = delrin_alpab9;
-
- G4ThreeVector delrin_pos9 = G4ThreeVector(0,0,distanceFromTarget9*cos(theta9));
-
- G4Trap* solidDelrin9 =
- new G4Trap("Delrin9", //its name
- delrin_dz9,
- delrin_theta9, delrin_phi9,
- delrin_dyab9,
- delrin_dxa9, delrin_dxb9,
- delrin_alpab9,
- delrin_dycd9,
- delrin_dxc9, delrin_dxd9,
- delrin_alpcd9); //its size
-
- G4LogicalVolume* logicDelrin9 =
- new G4LogicalVolume(solidDelrin9, //its solid
- delrin, //its material
- "Delrin9"); //its name
- logicDelrin9->SetVisAttributes(delrinVisAtt);
-
- //
- // CsI Detector
- //
- G4double coneheight9 = 2*distanceFromTarget9;
- G4double flatheight9 = coneheight9 -0.01*mm;
- G4double coneangle9 = theta9;
- G4double crystal_rmina9 = -(coneheight9-flatheight9)*tan(coneangle9+halfTheta9);
- G4double crystal_rmaxa9 = -(coneheight9-flatheight9)*tan(coneangle9-halfTheta9);
- G4double crystal_rminb9 = -coneheight9*tan(coneangle9+halfTheta9);
- G4double crystal_rmaxb9 = -coneheight9*tan(coneangle9-halfTheta9);
- G4double crystal_hz9 = 0.5*flatheight9;//(crystal_rmaxb9-crystal_rmaxa9)/crystal_rmaxb9*coneheight9;
- G4double crystal_phimin9 = 0.*deg, crystal_phimax9 = 360.*deg/detNum9;
- G4RotationMatrix tip_rotm9 = G4RotationMatrix();
- G4ThreeVector tip_pos9 = G4ThreeVector(0,0,0.5*flatheight9+(coneheight9-flatheight9)); //last term is a fudge
- G4Transform3D tip_trans9 = G4Transform3D(tip_rotm9, tip_pos9);
- G4ThreeVector z9 = G4ThreeVector(0,0,1);
- G4ThreeVector d09 = G4ThreeVector(distanceFromTarget9*sin(coneangle9)*cos(0.5*360*deg/detNum9),
- distanceFromTarget9*sin(coneangle9)*sin(0.5*360*deg/detNum9),
- -distanceFromTarget9*cos(coneangle9));
- G4ThreeVector unitAxis9 = z9.cross(d09);
- unitAxis9 = unitAxis9/unitAxis9.mag();
- G4double ux9 = unitAxis9.x();
- G4double uy9 = unitAxis9.y();
- G4double uz9 = unitAxis9.z();
- G4ThreeVector top9 = G4ThreeVector(cos(-coneangle9)+pow(ux9,2)*(1-cos(-coneangle9)), ux9*uy9*(1-cos(-coneangle9))-uz9*sin(-coneangle9), ux9*uz9*(1-cos(-coneangle9))+uy9*sin(-coneangle9));
- G4ThreeVector mid9 = G4ThreeVector(uy9*ux9*(1-cos(-coneangle9))+uz9*sin(-coneangle9), cos(-coneangle9)+pow(uy9,2)*(1-cos(-coneangle9)), uy9*uz9*(1-cos(-coneangle9))-ux9*sin(-coneangle9));
- G4ThreeVector bot9 = G4ThreeVector(uz9*ux9*(1-cos(-coneangle9))-uy9*sin(-coneangle9), uz9*uy9*(1-cos(-coneangle9))+ux9*sin(-coneangle9), cos(-coneangle9)+pow(uz9,2)*(1-cos(-coneangle9)));
- G4RotationMatrix firstBox_rotm9 = G4RotationMatrix();
- firstBox_rotm9.setRows(top9,mid9,bot9);
- G4ThreeVector firstBox_pos9 = G4ThreeVector(0,0,0);
- G4Transform3D firstBox_trans9 = G4Transform3D(firstBox_rotm9, firstBox_pos9);
- G4RotationMatrix secondBox_rotm9 = G4RotationMatrix();
- secondBox_rotm9.setRows(top9,mid9,bot9);
- G4ThreeVector secondBox_pos9 = (2*distanceFromTarget9+detThickness9)/d09.mag()*d09;
- G4Transform3D secondBox_trans9 = G4Transform3D(secondBox_rotm9, secondBox_pos9);
-
- G4Orb* solidTip9 =
- new G4Orb("tip9",
- .0001*mm);
- G4Box* solidSubtractionBox9 =
- new G4Box("SubtractionBox9", //its name
- distanceFromTarget9,
- distanceFromTarget9,
- distanceFromTarget9); //its size
- G4Cons* solidCone9 =
- new G4Cons("Cone9", //its name
- crystal_rmina9, crystal_rmaxa9,
- crystal_rminb9, crystal_rmaxb9,
- crystal_hz9,
- crystal_phimin9, crystal_phimax9); //its size
- G4UnionSolid* solidTippedCone9 =
- new G4UnionSolid("TippedCone9",
- solidTip9,
- solidCone9,
- tip_trans9);
- G4SubtractionSolid* solidIntermediate9 =
- new G4SubtractionSolid("Intermediate9",
- solidTippedCone9,
- solidSubtractionBox9,
- firstBox_trans9);
- G4SubtractionSolid* solidCrystal9 =
- new G4SubtractionSolid("Crystal9",
- solidIntermediate9,
- solidSubtractionBox9,
- secondBox_trans9);
-
- G4LogicalVolume* logicCrystal9 =
- new G4LogicalVolume(solidCrystal9, //its solid
- CsI, //its material
- "CsI Detector9"); //its name
- logicCrystal9->SetVisAttributes(crystalVisAtt);
- logicCrystal9->SetSensitiveDetector(m_MicroballScorer);
-
- //
- // Light Guide
- //
- G4double lightGuide_px9 = 10*mm;
- G4double lightGuide_py9 = 10*mm;
- G4double lightGuide_pz9 = lgThickness9;
- G4Box* solidLightGuide9 =
- new G4Box("LightGuide9", //its name
- 0.5*lightGuide_px9,
- 0.5*lightGuide_py9,
- 0.5*lightGuide_pz9); //its size
-
- G4LogicalVolume* logicLightGuide9 =
- new G4LogicalVolume(solidLightGuide9, //its solid
- glass, //its material
- "LightGuide9"); //its name
- logicLightGuide9->SetVisAttributes(lightGuideVisAtt);
-
-
- for(int i = 1; i <= detNum9; i++)
- {
- G4RotationMatrix crystal_rotm = G4RotationMatrix();
- G4ThreeVector d0 = G4ThreeVector(distanceFromTarget9*sin(coneangle9)*cos(0.5*360*deg/detNum9),
- distanceFromTarget9*sin(coneangle9)*sin(0.5*360*deg/detNum9),
- distanceFromTarget9*cos(coneangle9));
- G4ThreeVector df = G4ThreeVector(distanceFromTarget9*sin(theta9)*sin((i-1)*360*deg/detNum9+.001*deg/*+0.5*360*deg/detNum9*/),
- distanceFromTarget9*sin(theta9)*cos((i-1)*360*deg/detNum9+.001*deg/*+0.5*360*deg/detNum9*/),
- -distanceFromTarget9*cos(theta9));
- df.setX(-df.x());
- G4ThreeVector axis = d0.cross(df);
- G4double ax = axis.x();
- G4double ay = axis.y();
- G4double az = axis.z();
- G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
- G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
- G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
- G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
- G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
- G4RotationMatrix abc = G4RotationMatrix();
- abc.setRows(a,b,c);
- G4ThreeVector unitdf = df/df.mag();
- G4double udfx = unitdf.x();
- G4double udfy = unitdf.y();
- G4double udfz = unitdf.z();
- G4double k = 180.*deg;
- G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
- G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
- G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
- G4RotationMatrix def = G4RotationMatrix();
- def.setRows(d,e,f);
- crystal_rotm=def*abc;
- if (m_Flip == 1){
- crystal_rotm.rotateY(180*deg);
- }
- crystal_rotm.rotateZ(180*deg);
- G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
- G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
- df.setX(-df.x());
- G4RotationMatrix lg_rotm = G4RotationMatrix();
- /*
- lg_rotm.rotateZ((i-1)*360*deg/detNum9);
- G4ThreeVector lg_pos = G4ThreeVector((distance9+detThickness9+0.5*lgThickness9)*cos(i*360*deg/detNum9),
- (distance9+detThickness9+0.5*lgThickness9)*sin(i*360*deg/detNum9),
- 0)+delrin_pos9;
- */
- G4ThreeVector lg_Axis = df.cross(z9);
- lg_Axis = lg_Axis/lg_Axis.mag();
- lg_Axis.rotateZ(180*deg);
- G4double ulgx = lg_Axis.x();
- G4double ulgy = lg_Axis.y();
- G4double ulgz = lg_Axis.z();
- G4ThreeVector p = G4ThreeVector(cos(theta9)+pow(ulgx,2)*(1-cos(theta9)), ulgx*ulgy*(1-cos(theta9))-ulgz*sin(theta9), ulgx*ulgz*(1-cos(theta9))+ulgy*sin(theta9));
- G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta9))+ulgz*sin(theta9), cos(theta9)+pow(ulgy,2)*(1-cos(theta9)), ulgy*ulgz*(1-cos(theta9))-ulgx*sin(theta9));
- G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta9))-ulgy*sin(theta9), ulgz*ulgy*(1-cos(theta9))+ulgx*sin(theta9), cos(theta9)+pow(ulgz,2)*(1-cos(theta9)));
- G4RotationMatrix pqr = G4RotationMatrix();
- pqr.setRows(p,q,r);
- lg_rotm.rotateZ((i-1)*360*deg/detNum9);
- lg_rotm.rotateX(180*deg);
- lg_rotm=pqr*lg_rotm;
- G4ThreeVector lg_pos = (distanceFromTarget9+detThickness9+0.5*lgThickness9+.0003*mm)/df.mag()*df;
- lg_pos.rotateZ(180*deg);
- if (m_Flip == 0){
- lg_pos.rotateY(180*deg);
- lg_rotm.rotateY(180*deg);
- }
- G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
- G4RotationMatrix delrin_rotm = G4RotationMatrix();
- G4ThreeVector w = G4ThreeVector(sin(theta9)*sin((i-1)*360*deg/detNum9+.001*deg), sin(theta9)*cos((i-1)*360*deg/detNum9+.001*deg), cos(theta9));
- G4ThreeVector delrin_Axis = w.cross(z9);
- delrin_Axis.rotateX(180*deg);
- delrin_Axis = delrin_Axis/delrin_Axis.mag();
- G4double udx = delrin_Axis.x();
- G4double udy = delrin_Axis.y();
- G4double udz = delrin_Axis.z();
- G4double delAng = -90*deg+theta9;
- G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
- G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
- G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
- G4RotationMatrix pqrdel = G4RotationMatrix();
- pqrdel.setRows(pdel,qdel,rdel);
- delrin_rotm.rotateZ((-i+1)*360*deg/detNum9+.001*deg);
- delrin_rotm.rotateX(180*deg);
- delrin_rotm=pqrdel*delrin_rotm;
- delrin_rotm.rotateZ(0*deg);
- G4ThreeVector delrin_pos = (distanceFromTarget9+detThickness9+lgThickness9+delrinA9/2+.0005*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
- delrin_pos.rotateZ(180*deg);
- delrin_pos.rotateY(180*deg);
- if (m_Flip == 1){
- delrin_pos.rotateY(180*deg);
- delrin_rotm.rotateY(180*deg);
- }
- G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
- bool placeCrystal = true;
- for (unsigned int i2=0; i2 < m_Array.size(); i2++){
- if (90 < m_Array[i2] && m_Array[i2] < 97){
- if (m_Array[i2] == 90+i){
- placeCrystal = false;
- }
- }
- }
- if (placeCrystal){
- if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
- logicCrystal9, //its logical volume
- "CsI Detector9", //its name
- world, //its mother volume
- false, //no boolean operation
- 90+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- if (placeCrystal){
- if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
- logicLightGuide9, //its logical volume
- "LightGuide9", //its name
- world, //its mother volume
- false, //no boolean operation
- 90+i, //copy number
- checkOverlaps); //overlaps checking
- }
- if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
- logicDelrin9, //its logical volume
- "Delrin9", //its name
- world, //its mother volume
- false, //no boolean operation
- 90+i, //copy number
- checkOverlaps); //overlaps checking
- }
- }
- }}
+ //
+ // CsI Detector
+ //
+ G4double coneheight8 = 1.7*distanceFromTarget8;
+ G4double flatheight8 = coneheight8 -0.01*mm;
+ G4double coneangle8 = theta8;
+ G4double crystal_rmina8 = -(coneheight8-flatheight8)*tan(coneangle8+halfTheta8);
+ G4double crystal_rmaxa8 = -(coneheight8-flatheight8)*tan(coneangle8-halfTheta8);
+ G4double crystal_rminb8 = -coneheight8*tan(coneangle8+halfTheta8);
+ G4double crystal_rmaxb8 = -coneheight8*tan(coneangle8-halfTheta8);
+ G4double crystal_hz8 = 0.5*flatheight8;//(crystal_rmaxb8-crystal_rmaxa8)/crystal_rmaxb8*coneheight8;
+ G4double crystal_phimin8 = 0.*deg, crystal_phimax8 = 360.*deg/detNum8;
+ G4RotationMatrix tip_rotm8 = G4RotationMatrix();
+ G4ThreeVector tip_pos8 = G4ThreeVector(0,0,0.5*flatheight8+(coneheight8-flatheight8)); //last term is a fudge
+ G4Transform3D tip_trans8 = G4Transform3D(tip_rotm8, tip_pos8);
+ G4ThreeVector z8 = G4ThreeVector(0,0,1);
+ G4ThreeVector d08 = G4ThreeVector(distanceFromTarget8*sin(coneangle8)*cos(0.5*360*deg/detNum8),
+ distanceFromTarget8*sin(coneangle8)*sin(0.5*360*deg/detNum8),
+ -distanceFromTarget8*cos(coneangle8));
+ G4ThreeVector unitAxis8 = z8.cross(d08);
+ unitAxis8 = unitAxis8/unitAxis8.mag();
+ G4double ux8 = unitAxis8.x();
+ G4double uy8 = unitAxis8.y();
+ G4double uz8 = unitAxis8.z();
+ G4ThreeVector top8 = G4ThreeVector(cos(-coneangle8)+pow(ux8,2)*(1-cos(-coneangle8)), ux8*uy8*(1-cos(-coneangle8))-uz8*sin(-coneangle8), ux8*uz8*(1-cos(-coneangle8))+uy8*sin(-coneangle8));
+ G4ThreeVector mid8 = G4ThreeVector(uy8*ux8*(1-cos(-coneangle8))+uz8*sin(-coneangle8), cos(-coneangle8)+pow(uy8,2)*(1-cos(-coneangle8)), uy8*uz8*(1-cos(-coneangle8))-ux8*sin(-coneangle8));
+ G4ThreeVector bot8 = G4ThreeVector(uz8*ux8*(1-cos(-coneangle8))-uy8*sin(-coneangle8), uz8*uy8*(1-cos(-coneangle8))+ux8*sin(-coneangle8), cos(-coneangle8)+pow(uz8,2)*(1-cos(-coneangle8)));
+ G4RotationMatrix firstBox_rotm8 = G4RotationMatrix();
+ firstBox_rotm8.setRows(top8,mid8,bot8);
+ G4ThreeVector firstBox_pos8 = G4ThreeVector(0,0,0);
+ G4Transform3D firstBox_trans8 = G4Transform3D(firstBox_rotm8, firstBox_pos8);
+ G4RotationMatrix secondBox_rotm8 = G4RotationMatrix();
+ secondBox_rotm8.setRows(top8,mid8,bot8);
+ G4ThreeVector secondBox_pos8 = (2*distanceFromTarget8+detThickness8)/d08.mag()*d08;
+ G4Transform3D secondBox_trans8 = G4Transform3D(secondBox_rotm8, secondBox_pos8);
+
+ G4Orb* solidTip8 =
+ new G4Orb("tip8",
+ .0001*mm);
+ G4Box* solidSubtractionBox8 =
+ new G4Box("SubtractionBox8", //its name
+ distanceFromTarget8,
+ distanceFromTarget8,
+ distanceFromTarget8); //its size
+ G4Cons* solidCone8 =
+ new G4Cons("Cone8", //its name
+ crystal_rmina8, crystal_rmaxa8,
+ crystal_rminb8, crystal_rmaxb8,
+ crystal_hz8,
+ crystal_phimin8, crystal_phimax8); //its size
+ G4UnionSolid* solidTippedCone8 =
+ new G4UnionSolid("TippedCone8",
+ solidTip8,
+ solidCone8,
+ tip_trans8);
+ G4SubtractionSolid* solidIntermediate8 =
+ new G4SubtractionSolid("Intermediate8",
+ solidTippedCone8,
+ solidSubtractionBox8,
+ firstBox_trans8);
+ G4SubtractionSolid* solidCrystal8 =
+ new G4SubtractionSolid("Crystal8",
+ solidIntermediate8,
+ solidSubtractionBox8,
+ secondBox_trans8);
+
+ G4LogicalVolume* logicCrystal8 =
+ new G4LogicalVolume(solidCrystal8, //its solid
+ CsI, //its material
+ "CsI Detector8"); //its name
+ logicCrystal8->SetVisAttributes(crystalVisAtt);
+ logicCrystal8->SetSensitiveDetector(m_MicroballScorer);
+ //
+ // Light Guide
+ //
+ G4double lightGuide_px8 = 10*mm;
+ G4double lightGuide_py8 = 10*mm;
+ G4double lightGuide_pz8 = lgThickness8;
+ G4Box* solidLightGuide8 =
+ new G4Box("LightGuide8", //its name
+ 0.5*lightGuide_px8,
+ 0.5*lightGuide_py8,
+ 0.5*lightGuide_pz8); //its size
+
+ G4LogicalVolume* logicLightGuide8 =
+ new G4LogicalVolume(solidLightGuide8, //its solid
+ glass, //its material
+ "LightGuide8"); //its name
+ logicLightGuide8->SetVisAttributes(lightGuideVisAtt);
+
+
+ for(int i = 1; i <= detNum8; i++)
+ {
+ G4RotationMatrix crystal_rotm = G4RotationMatrix();
+ G4ThreeVector d0 = G4ThreeVector(distanceFromTarget8*sin(coneangle8)*cos(0.5*360*deg/detNum8),
+ distanceFromTarget8*sin(coneangle8)*sin(0.5*360*deg/detNum8),
+ distanceFromTarget8*cos(coneangle8));
+ G4ThreeVector df = G4ThreeVector(distanceFromTarget8*sin(theta8)*sin((i-1)*360*deg/detNum8+.001*deg/*+0.5*360*deg/detNum8*/),
+ distanceFromTarget8*sin(theta8)*cos((i-1)*360*deg/detNum8+.001*deg/*+0.5*360*deg/detNum8*/),
+ -distanceFromTarget8*cos(theta8));
+ df.setX(-df.x());
+ G4ThreeVector axis = d0.cross(df);
+ G4double ax = axis.x();
+ G4double ay = axis.y();
+ G4double az = axis.z();
+ G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
+ G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
+ G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
+ G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
+ G4RotationMatrix abc = G4RotationMatrix();
+ abc.setRows(a,b,c);
+ G4ThreeVector unitdf = df/df.mag();
+ G4double udfx = unitdf.x();
+ G4double udfy = unitdf.y();
+ G4double udfz = unitdf.z();
+ G4double k = 180.*deg;
+ G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
+ G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
+ G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
+ G4RotationMatrix def = G4RotationMatrix();
+ def.setRows(d,e,f);
+ crystal_rotm=def*abc;
+ if (m_Flip == 1){
+ crystal_rotm.rotateY(180*deg);
+ }
+ crystal_rotm.rotateZ(180*deg);
+ G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
+ G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
+ df.setX(-df.x());
+ G4RotationMatrix lg_rotm = G4RotationMatrix();
+ G4ThreeVector lg_Axis = df.cross(z8);
+ lg_Axis = lg_Axis/lg_Axis.mag();
+ lg_Axis.rotateZ(180*deg);
+ G4double ulgx = lg_Axis.x();
+ G4double ulgy = lg_Axis.y();
+ G4double ulgz = lg_Axis.z();
+ G4ThreeVector p = G4ThreeVector(cos(theta8)+pow(ulgx,2)*(1-cos(theta8)), ulgx*ulgy*(1-cos(theta8))-ulgz*sin(theta8), ulgx*ulgz*(1-cos(theta8))+ulgy*sin(theta8));
+ G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta8))+ulgz*sin(theta8), cos(theta8)+pow(ulgy,2)*(1-cos(theta8)), ulgy*ulgz*(1-cos(theta8))-ulgx*sin(theta8));
+ G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta8))-ulgy*sin(theta8), ulgz*ulgy*(1-cos(theta8))+ulgx*sin(theta8), cos(theta8)+pow(ulgz,2)*(1-cos(theta8)));
+ G4RotationMatrix pqr = G4RotationMatrix();
+ pqr.setRows(p,q,r);
+ lg_rotm.rotateZ((i-1)*360*deg/detNum8);
+ lg_rotm.rotateX(180*deg);
+ lg_rotm=pqr*lg_rotm;
+ G4ThreeVector lg_pos = (distanceFromTarget8+detThickness8+0.5*lgThickness8+.0003*mm)/df.mag()*df;
+ lg_pos.rotateZ(180*deg);
+ if (m_Flip == 0){
+ lg_pos.rotateY(180*deg);
+ lg_rotm.rotateY(180*deg);
+ }
+ G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
+ G4RotationMatrix delrin_rotm = G4RotationMatrix();
+ G4ThreeVector w = G4ThreeVector(sin(theta8)*sin((i-1)*360*deg/detNum8+.001*deg), sin(theta8)*cos((i-1)*360*deg/detNum8+.001*deg), cos(theta8));
+ G4ThreeVector delrin_Axis = w.cross(z8);
+ delrin_Axis.rotateX(180*deg);
+ delrin_Axis = delrin_Axis/delrin_Axis.mag();
+ G4double udx = delrin_Axis.x();
+ G4double udy = delrin_Axis.y();
+ G4double udz = delrin_Axis.z();
+ G4double delAng = -90*deg+theta8;
+ G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
+ G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
+ G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
+ G4RotationMatrix pqrdel = G4RotationMatrix();
+ pqrdel.setRows(pdel,qdel,rdel);
+ delrin_rotm.rotateZ((-i+1)*360*deg/detNum8+.001*deg);
+ delrin_rotm.rotateX(180*deg);
+ delrin_rotm=pqrdel*delrin_rotm;
+ delrin_rotm.rotateZ(0*deg);
+ G4ThreeVector delrin_pos = (distanceFromTarget8+detThickness8+lgThickness8+delrinA8/2+.0005*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
+ delrin_pos.rotateZ(180*deg);
+ delrin_pos.rotateY(180*deg);
+ if (m_Flip == 1){
+ delrin_pos.rotateY(180*deg);
+ delrin_rotm.rotateY(180*deg);
+ }
+ G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
+ bool placeCrystal = true;
+ for (unsigned int i2=0; i2 < m_Array.size(); i2++){
+ if (80 < m_Array[i2] && m_Array[i2] < 91){
+ if (m_Array[i2] == 80 +(i -detNum8/2)%detNum8){
+ placeCrystal = false;
+ }else if (m_Array[i2] == 80 +(i -detNum8/2)%detNum8 +detNum8){
+ placeCrystal = false;
+ }
+ }
+ }
+ if (placeCrystal){
+ if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
+ logicCrystal8, //its logical volume
+ "CsI Detector8", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 80+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ if (placeCrystal){
+ if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
+ logicLightGuide8, //its logical volume
+ "LightGuide8", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 80+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
+ logicDelrin8, //its logical volume
+ "Delrin8", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 80+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ }}
+
+
+ if(m_Ring9){
+ // Ring 9 ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
+ G4int detNum9 = 6;
+ G4double distanceFromTargetBack9 = 50.*mm;
+ G4double theta9 = 159.0*deg;
+ G4double halfTheta9 = 12.0*deg;//-0.1*deg; //fudge factor
+ G4double lgThickness9 = 8.0*mm;
+ G4double detThickness9 = 3.5*mm;
+ G4double distanceFromTarget9 = distanceFromTargetBack9 - detThickness9;
+
+ //G4double distance9 = distanceFromTarget9*sin(theta9); //this gives the distance from the beam axis.
+
+ /*
+ //
+ // Delrin Ring (for deletion)
+ //
+ G4double delrin_rmina9 = distance9+detThickness9+lgThickness9, delrin_rmaxa9 = delrin_rmina9+5*mm;
+ G4double delrin_hz9 = 5*mm; //distance9*tan(halfTheta9);
+ G4double delrin_phimin9 = 0.*deg, delrin_phimax9 = 360.*deg;
+ G4ThreeVector delrin_pos9 = G4ThreeVector(0,0,distanceFromTarget9*cos(theta9)); //G4ThreeVector(0,0,distance9+lgThickness9+detThickness9*sin(theta9));
+
+ G4Tubs* solidDelrin9 =
+ new G4Tubs("Delrin9", //its name
+ delrin_rmina9, delrin_rmaxa9,
+ delrin_hz9,
+ delrin_phimin9, delrin_phimax9); //its size
+
+ G4LogicalVolume* logicDelrin9 =
+ new G4LogicalVolume(solidDelrin9, //its solid
+ delrin, //its material
+ "Delrin9"); //its name
+ logicDelrin9->SetVisAttributes(delrinVisAtt);
+
+ if(delrinBool) {new G4PVPlacement(0, //no rotation
+ delrin_pos9, //its position
+ logicDelrin9, //its logical volume
+ "Delrin9", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 0, //copy number
+ checkOverlaps); //overlaps checking
+ }
+*/
+
+ //
+ // Delrin Ring
+ //
+ G4double delrinA9 = 5*mm;
+ G4double delrinB9 = 10*mm;
+ G4double fdelrinHalfAngle9 = atan(delrinB9/2/(distanceFromTarget9+detThickness9+lgThickness9));
+ G4double firs9 = pow(pow(distanceFromTarget9+detThickness9+lgThickness9,2)+pow(delrinB9/2,2),0.5)*sin(theta9-fdelrinHalfAngle9);
+ G4double firb9 = pow(pow(distanceFromTarget9+detThickness9+lgThickness9,2)+pow(delrinB9/2,2),0.5)*sin(theta9+fdelrinHalfAngle9);
+ G4double bdelrinHalfAngle9 = atan(delrinB9/2/(distanceFromTarget9+detThickness9+lgThickness9+delrinA9));
+ G4double birs9 = pow(pow(distanceFromTarget9+detThickness9+lgThickness9+delrinA9,2)+pow(delrinB9/2,2),0.5)*sin(theta9-bdelrinHalfAngle9);
+ G4double birb9 = pow(pow(distanceFromTarget9+detThickness9+lgThickness9+delrinA9,2)+pow(delrinB9/2,2),0.5)*sin(theta9+bdelrinHalfAngle9);
+
+ G4double delrin_dz9 = delrinB9/2;
+ G4double delrin_theta9 = 0;
+ G4double delrin_phi9 = 0;
+ G4double delrin_dyab9 = delrinA9/2;
+ G4double delrin_dxa9 = firs9*tan(180*deg/detNum9);
+ G4double delrin_dxb9 = birs9*tan(180*deg/detNum9);
+ G4double delrin_dycd9 = delrinA9/2;
+ G4double delrin_dxc9 = firb9*tan(180*deg/detNum9);
+ G4double delrin_dxd9 = birb9*tan(180*deg/detNum9);
+ G4double delrin_alpab9 = 0;
+ G4double delrin_alpcd9 = delrin_alpab9;
+
+ G4ThreeVector delrin_pos9 = G4ThreeVector(0,0,distanceFromTarget9*cos(theta9));
+
+ G4Trap* solidDelrin9 =
+ new G4Trap("Delrin9", //its name
+ delrin_dz9,
+ delrin_theta9, delrin_phi9,
+ delrin_dyab9,
+ delrin_dxa9, delrin_dxb9,
+ delrin_alpab9,
+ delrin_dycd9,
+ delrin_dxc9, delrin_dxd9,
+ delrin_alpcd9); //its size
+
+ G4LogicalVolume* logicDelrin9 =
+ new G4LogicalVolume(solidDelrin9, //its solid
+ delrin, //its material
+ "Delrin9"); //its name
+ logicDelrin9->SetVisAttributes(delrinVisAtt);
+
+ //
+ // CsI Detector
+ //
+ G4double coneheight9 = 2*distanceFromTarget9;
+ G4double flatheight9 = coneheight9 -0.01*mm;
+ G4double coneangle9 = theta9;
+ G4double crystal_rmina9 = -(coneheight9-flatheight9)*tan(coneangle9+halfTheta9);
+ G4double crystal_rmaxa9 = -(coneheight9-flatheight9)*tan(coneangle9-halfTheta9);
+ G4double crystal_rminb9 = -coneheight9*tan(coneangle9+halfTheta9);
+ G4double crystal_rmaxb9 = -coneheight9*tan(coneangle9-halfTheta9);
+ G4double crystal_hz9 = 0.5*flatheight9;//(crystal_rmaxb9-crystal_rmaxa9)/crystal_rmaxb9*coneheight9;
+ G4double crystal_phimin9 = 0.*deg, crystal_phimax9 = 360.*deg/detNum9;
+ G4RotationMatrix tip_rotm9 = G4RotationMatrix();
+ G4ThreeVector tip_pos9 = G4ThreeVector(0,0,0.5*flatheight9+(coneheight9-flatheight9)); //last term is a fudge
+ G4Transform3D tip_trans9 = G4Transform3D(tip_rotm9, tip_pos9);
+ G4ThreeVector z9 = G4ThreeVector(0,0,1);
+ G4ThreeVector d09 = G4ThreeVector(distanceFromTarget9*sin(coneangle9)*cos(0.5*360*deg/detNum9),
+ distanceFromTarget9*sin(coneangle9)*sin(0.5*360*deg/detNum9),
+ -distanceFromTarget9*cos(coneangle9));
+ G4ThreeVector unitAxis9 = z9.cross(d09);
+ unitAxis9 = unitAxis9/unitAxis9.mag();
+ G4double ux9 = unitAxis9.x();
+ G4double uy9 = unitAxis9.y();
+ G4double uz9 = unitAxis9.z();
+ G4ThreeVector top9 = G4ThreeVector(cos(-coneangle9)+pow(ux9,2)*(1-cos(-coneangle9)), ux9*uy9*(1-cos(-coneangle9))-uz9*sin(-coneangle9), ux9*uz9*(1-cos(-coneangle9))+uy9*sin(-coneangle9));
+ G4ThreeVector mid9 = G4ThreeVector(uy9*ux9*(1-cos(-coneangle9))+uz9*sin(-coneangle9), cos(-coneangle9)+pow(uy9,2)*(1-cos(-coneangle9)), uy9*uz9*(1-cos(-coneangle9))-ux9*sin(-coneangle9));
+ G4ThreeVector bot9 = G4ThreeVector(uz9*ux9*(1-cos(-coneangle9))-uy9*sin(-coneangle9), uz9*uy9*(1-cos(-coneangle9))+ux9*sin(-coneangle9), cos(-coneangle9)+pow(uz9,2)*(1-cos(-coneangle9)));
+ G4RotationMatrix firstBox_rotm9 = G4RotationMatrix();
+ firstBox_rotm9.setRows(top9,mid9,bot9);
+ G4ThreeVector firstBox_pos9 = G4ThreeVector(0,0,0);
+ G4Transform3D firstBox_trans9 = G4Transform3D(firstBox_rotm9, firstBox_pos9);
+ G4RotationMatrix secondBox_rotm9 = G4RotationMatrix();
+ secondBox_rotm9.setRows(top9,mid9,bot9);
+ G4ThreeVector secondBox_pos9 = (2*distanceFromTarget9+detThickness9)/d09.mag()*d09;
+ G4Transform3D secondBox_trans9 = G4Transform3D(secondBox_rotm9, secondBox_pos9);
+
+ G4Orb* solidTip9 =
+ new G4Orb("tip9",
+ .0001*mm);
+ G4Box* solidSubtractionBox9 =
+ new G4Box("SubtractionBox9", //its name
+ distanceFromTarget9,
+ distanceFromTarget9,
+ distanceFromTarget9); //its size
+ G4Cons* solidCone9 =
+ new G4Cons("Cone9", //its name
+ crystal_rmina9, crystal_rmaxa9,
+ crystal_rminb9, crystal_rmaxb9,
+ crystal_hz9,
+ crystal_phimin9, crystal_phimax9); //its size
+ G4UnionSolid* solidTippedCone9 =
+ new G4UnionSolid("TippedCone9",
+ solidTip9,
+ solidCone9,
+ tip_trans9);
+ G4SubtractionSolid* solidIntermediate9 =
+ new G4SubtractionSolid("Intermediate9",
+ solidTippedCone9,
+ solidSubtractionBox9,
+ firstBox_trans9);
+ G4SubtractionSolid* solidCrystal9 =
+ new G4SubtractionSolid("Crystal9",
+ solidIntermediate9,
+ solidSubtractionBox9,
+ secondBox_trans9);
+
+ G4LogicalVolume* logicCrystal9 =
+ new G4LogicalVolume(solidCrystal9, //its solid
+ CsI, //its material
+ "CsI Detector9"); //its name
+ logicCrystal9->SetVisAttributes(crystalVisAtt);
+ logicCrystal9->SetSensitiveDetector(m_MicroballScorer);
+
+ //
+ // Light Guide
+ //
+ G4double lightGuide_px9 = 10*mm;
+ G4double lightGuide_py9 = 10*mm;
+ G4double lightGuide_pz9 = lgThickness9;
+ G4Box* solidLightGuide9 =
+ new G4Box("LightGuide9", //its name
+ 0.5*lightGuide_px9,
+ 0.5*lightGuide_py9,
+ 0.5*lightGuide_pz9); //its size
+
+ G4LogicalVolume* logicLightGuide9 =
+ new G4LogicalVolume(solidLightGuide9, //its solid
+ glass, //its material
+ "LightGuide9"); //its name
+ logicLightGuide9->SetVisAttributes(lightGuideVisAtt);
+
+
+ for(int i = 1; i <= detNum9; i++)
+ {
+ G4RotationMatrix crystal_rotm = G4RotationMatrix();
+ G4ThreeVector d0 = G4ThreeVector(distanceFromTarget9*sin(coneangle9)*cos(0.5*360*deg/detNum9),
+ distanceFromTarget9*sin(coneangle9)*sin(0.5*360*deg/detNum9),
+ distanceFromTarget9*cos(coneangle9));
+ G4ThreeVector df = G4ThreeVector(distanceFromTarget9*sin(theta9)*sin((i-1)*360*deg/detNum9+.001*deg/*+0.5*360*deg/detNum9*/),
+ distanceFromTarget9*sin(theta9)*cos((i-1)*360*deg/detNum9+.001*deg/*+0.5*360*deg/detNum9*/),
+ -distanceFromTarget9*cos(theta9));
+ df.setX(-df.x());
+ G4ThreeVector axis = d0.cross(df);
+ G4double ax = axis.x();
+ G4double ay = axis.y();
+ G4double az = axis.z();
+ G4double ux = ax/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uy = ay/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double uz = az/pow((pow(ax,2)+pow(ay,2)+pow(az,2)),0.5);
+ G4double j = acos(d0.dot(df)/(d0.mag()*df.mag()));
+ G4ThreeVector a = G4ThreeVector(cos(j)+pow(ux,2)*(1-cos(j)), ux*uy*(1-cos(j))-uz*sin(j), ux*uz*(1-cos(j))+uy*sin(j));
+ G4ThreeVector b = G4ThreeVector(uy*ux*(1-cos(j))+uz*sin(j), cos(j)+pow(uy,2)*(1-cos(j)), uy*uz*(1-cos(j))-ux*sin(j));
+ G4ThreeVector c = G4ThreeVector(uz*ux*(1-cos(j))-uy*sin(j), uz*uy*(1-cos(j))+ux*sin(j), cos(j)+pow(uz,2)*(1-cos(j)));
+ G4RotationMatrix abc = G4RotationMatrix();
+ abc.setRows(a,b,c);
+ G4ThreeVector unitdf = df/df.mag();
+ G4double udfx = unitdf.x();
+ G4double udfy = unitdf.y();
+ G4double udfz = unitdf.z();
+ G4double k = 180.*deg;
+ G4ThreeVector d = G4ThreeVector(cos(k)+pow(udfx,2)*(1-cos(k)), udfx*udfy*(1-cos(k))-udfz*sin(k), udfx*udfz*(1-cos(k))+udfy*sin(k));
+ G4ThreeVector e = G4ThreeVector(udfy*udfx*(1-cos(k))+udfz*sin(k), cos(k)+pow(udfy,2)*(1-cos(k)), udfy*udfz*(1-cos(k))-udfx*sin(k));
+ G4ThreeVector f = G4ThreeVector(udfz*udfx*(1-cos(k))-udfy*sin(k), udfz*udfy*(1-cos(k))+udfx*sin(k), cos(k)+pow(udfz,2)*(1-cos(k)));
+ G4RotationMatrix def = G4RotationMatrix();
+ def.setRows(d,e,f);
+ crystal_rotm=def*abc;
+ if (m_Flip == 1){
+ crystal_rotm.rotateY(180*deg);
+ }
+ crystal_rotm.rotateZ(180*deg);
+ G4ThreeVector crystal_pos = G4ThreeVector(0,0,0);
+ G4Transform3D crystal_trans = G4Transform3D(crystal_rotm, crystal_pos);
+ df.setX(-df.x());
+ G4RotationMatrix lg_rotm = G4RotationMatrix();
+ /*
+ lg_rotm.rotateZ((i-1)*360*deg/detNum9);
+ G4ThreeVector lg_pos = G4ThreeVector((distance9+detThickness9+0.5*lgThickness9)*cos(i*360*deg/detNum9),
+ (distance9+detThickness9+0.5*lgThickness9)*sin(i*360*deg/detNum9),
+ 0)+delrin_pos9;
+ */
+ G4ThreeVector lg_Axis = df.cross(z9);
+ lg_Axis = lg_Axis/lg_Axis.mag();
+ lg_Axis.rotateZ(180*deg);
+ G4double ulgx = lg_Axis.x();
+ G4double ulgy = lg_Axis.y();
+ G4double ulgz = lg_Axis.z();
+ G4ThreeVector p = G4ThreeVector(cos(theta9)+pow(ulgx,2)*(1-cos(theta9)), ulgx*ulgy*(1-cos(theta9))-ulgz*sin(theta9), ulgx*ulgz*(1-cos(theta9))+ulgy*sin(theta9));
+ G4ThreeVector q = G4ThreeVector(ulgy*ulgx*(1-cos(theta9))+ulgz*sin(theta9), cos(theta9)+pow(ulgy,2)*(1-cos(theta9)), ulgy*ulgz*(1-cos(theta9))-ulgx*sin(theta9));
+ G4ThreeVector r = G4ThreeVector(ulgz*ulgx*(1-cos(theta9))-ulgy*sin(theta9), ulgz*ulgy*(1-cos(theta9))+ulgx*sin(theta9), cos(theta9)+pow(ulgz,2)*(1-cos(theta9)));
+ G4RotationMatrix pqr = G4RotationMatrix();
+ pqr.setRows(p,q,r);
+ lg_rotm.rotateZ((i-1)*360*deg/detNum9);
+ lg_rotm.rotateX(180*deg);
+ lg_rotm=pqr*lg_rotm;
+ G4ThreeVector lg_pos = (distanceFromTarget9+detThickness9+0.5*lgThickness9+.0003*mm)/df.mag()*df;
+ lg_pos.rotateZ(180*deg);
+ if (m_Flip == 0){
+ lg_pos.rotateY(180*deg);
+ lg_rotm.rotateY(180*deg);
+ }
+ G4Transform3D lg_trans = G4Transform3D(lg_rotm, lg_pos);
+ G4RotationMatrix delrin_rotm = G4RotationMatrix();
+ G4ThreeVector w = G4ThreeVector(sin(theta9)*sin((i-1)*360*deg/detNum9+.001*deg), sin(theta9)*cos((i-1)*360*deg/detNum9+.001*deg), cos(theta9));
+ G4ThreeVector delrin_Axis = w.cross(z9);
+ delrin_Axis.rotateX(180*deg);
+ delrin_Axis = delrin_Axis/delrin_Axis.mag();
+ G4double udx = delrin_Axis.x();
+ G4double udy = delrin_Axis.y();
+ G4double udz = delrin_Axis.z();
+ G4double delAng = -90*deg+theta9;
+ G4ThreeVector pdel = G4ThreeVector(cos(delAng)+pow(udx,2)*(1-cos(delAng)), udx*udy*(1-cos(delAng))-udz*sin(delAng), udx*udz*(1-cos(delAng))+udy*sin(delAng));
+ G4ThreeVector qdel = G4ThreeVector(udy*udx*(1-cos(delAng))+udz*sin(delAng), cos(delAng)+pow(udy,2)*(1-cos(delAng)), udy*udz*(1-cos(delAng))-udx*sin(delAng));
+ G4ThreeVector rdel = G4ThreeVector(udz*udx*(1-cos(delAng))-udy*sin(delAng), udz*udy*(1-cos(delAng))+udx*sin(delAng), cos(delAng)+pow(udz,2)*(1-cos(delAng)));
+ G4RotationMatrix pqrdel = G4RotationMatrix();
+ pqrdel.setRows(pdel,qdel,rdel);
+ delrin_rotm.rotateZ((-i+1)*360*deg/detNum9+.001*deg);
+ delrin_rotm.rotateX(180*deg);
+ delrin_rotm=pqrdel*delrin_rotm;
+ delrin_rotm.rotateZ(0*deg);
+ G4ThreeVector delrin_pos = (distanceFromTarget9+detThickness9+lgThickness9+delrinA9/2+.0005*mm)/df.mag()*df; //the .0003 mm is a fudge factor to prevent overlapping
+ delrin_pos.rotateZ(180*deg);
+ delrin_pos.rotateY(180*deg);
+ if (m_Flip == 1){
+ delrin_pos.rotateY(180*deg);
+ delrin_rotm.rotateY(180*deg);
+ }
+ G4Transform3D delrin_trans = G4Transform3D(delrin_rotm, delrin_pos);
+ bool placeCrystal = true;
+ for (unsigned int i2=0; i2 < m_Array.size(); i2++){
+ if (90 < m_Array[i2] && m_Array[i2] < 97){
+ if (m_Array[i2] == 90 +(i -detNum9/2)%detNum9){
+ placeCrystal = false;
+ }else if (m_Array[i2] == 90 +(i -detNum9/2)%detNum9 +detNum9){
+ placeCrystal = false;
+ }
+ }
+ }
+ if (placeCrystal){
+ if(crystalBool) {new G4PVPlacement(crystal_trans, //rotation, position
+ logicCrystal9, //its logical volume
+ "CsI Detector9", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 90+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ if (placeCrystal){
+ if(lgBool) {new G4PVPlacement(lg_trans, //rotation, position
+ logicLightGuide9, //its logical volume
+ "LightGuide9", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 90+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ if(delrinBool) {new G4PVPlacement(delrin_trans, //rotation, position
+ logicDelrin9, //its logical volume
+ "Delrin9", //its name
+ world, //its mother volume
+ false, //no boolean operation
+ 90+i, //copy number
+ checkOverlaps); //overlaps checking
+ }
+ }
+ }}
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
// Add Detector branch to the EventTree.
// Called After DetecorConstruction::AddDetector Method
void Microball::InitializeRootOutput(){
- RootOutput *pAnalysis = RootOutput::getInstance();
- TTree *pTree = pAnalysis->GetTree();
- pTree->Branch("Microball", "TMicroballData", &m_Event) ;
- pTree->SetBranchAddress("Microball", &m_Event) ;
+ RootOutput *pAnalysis = RootOutput::getInstance();
+ TTree *pTree = pAnalysis->GetTree();
+ pTree->Branch("Microball", "TMicroballData", &m_Event) ;
+ pTree->SetBranchAddress("Microball", &m_Event) ;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
// Read sensitive part and fill the Root tree.
// Called at in the EventAction::EndOfEventAvtion
void Microball::ReadSensitive(const G4Event* event){
- m_Event->Clear();
-
- ///////////
- // Calorimeter scorer
- G4THitsMap<G4double*>* CaloHitMap;
- std::map<G4int, G4double**>::iterator Calo_itr;
-
- G4int CaloCollectionID = G4SDManager::GetSDMpointer()->GetCollectionID("MicroballScorer/Calorimeter");
- CaloHitMap = (G4THitsMap<G4double*>*)(event->GetHCofThisEvent()->GetHC(CaloCollectionID));
-
- // Loop on the Calo map
- for (Calo_itr = CaloHitMap->GetMap()->begin() ; Calo_itr != CaloHitMap->GetMap()->end() ; Calo_itr++){
-
- G4double* Info = *(Calo_itr->second);
- //(Info[0]/2.35)*((Info[0]*1.02)*pow((Info[0]*1.8),.5))
- // double Energy = RandGauss::shoot(Info[0],((Info[0]*1000*1.02/2.35)*pow((Info[0]*1000*1.8),.5)) );
- double Energy = RandGauss::shoot(Info[0],Microball_NS::ResoEnergy);
- if(Energy>Microball_NS::EnergyThreshold){
- double Time = RandGauss::shoot(Info[1],Microball_NS::ResoTime);
- int DetectorNbr = (int) Info[7];
- m_Event->SetEnergy(DetectorNbr,Energy);
- m_Event->SetTime(DetectorNbr,Time);
-
- ms_InterCoord->SetDetectedPositionX(Info[2]) ;
- ms_InterCoord->SetDetectedPositionY(Info[3]) ;
- ms_InterCoord->SetDetectedPositionZ(Info[4]) ;
- ms_InterCoord->SetDetectedAngleTheta(Info[5]/deg) ;
- ms_InterCoord->SetDetectedAnglePhi(Info[6]/deg) ;
- }
+ m_Event->Clear();
+
+ ///////////
+ // Calorimeter scorer
+ G4THitsMap<G4double*>* CaloHitMap;
+ std::map<G4int, G4double**>::iterator Calo_itr;
+
+ G4int CaloCollectionID = G4SDManager::GetSDMpointer()->GetCollectionID("MicroballScorer/Calorimeter");
+ CaloHitMap = (G4THitsMap<G4double*>*)(event->GetHCofThisEvent()->GetHC(CaloCollectionID));
+
+ // Loop on the Calo map
+ for (Calo_itr = CaloHitMap->GetMap()->begin() ; Calo_itr != CaloHitMap->GetMap()->end() ; Calo_itr++){
+
+ G4double* Info = *(Calo_itr->second);
+ //(Info[0]/2.35)*((Info[0]*1.02)*pow((Info[0]*1.8),.5))
+ // double Energy = RandGauss::shoot(Info[0],((Info[0]*1000*1.02/2.35)*pow((Info[0]*1000*1.8),.5)) );
+ double Energy = RandGauss::shoot(Info[0],Microball_NS::ResoEnergy);
+ if(Energy>Microball_NS::EnergyThreshold){
+ double Time = RandGauss::shoot(Info[1],Microball_NS::ResoTime);
+ int DetectorNbr = (int) Info[7];
+ m_Event->SetEnergy(DetectorNbr,Energy);
+ m_Event->SetTime(DetectorNbr,Time);
+
+ ms_InterCoord->SetDetectedPositionX(Info[2]) ;
+ ms_InterCoord->SetDetectedPositionY(Info[3]) ;
+ ms_InterCoord->SetDetectedPositionZ(Info[4]) ;
+ ms_InterCoord->SetDetectedAngleTheta(Info[5]/deg) ;
+ ms_InterCoord->SetDetectedAnglePhi(Info[6]/deg) ;
}
- // clear map for next event
- CaloHitMap->clear();
+ }
+ // clear map for next event
+ CaloHitMap->clear();
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
////////////////////////////////////////////////////////////////
void Microball::InitializeScorers() {
- // This check is necessary in case the geometry is reloaded
- bool already_exist = false;
- m_MicroballScorer = CheckScorer("MicroballScorer",already_exist) ;
-
- if(already_exist)
- return ;
-
- // Otherwise the scorer is initialised
- vector<int> level; level.push_back(0);
- G4VPrimitiveScorer* Calorimeter= new CALORIMETERSCORERS::PS_CalorimeterWithInteraction("Calorimeter",level, 0) ;
- //and register it to the multifunctionnal detector
- m_MicroballScorer->RegisterPrimitive(Calorimeter);
- G4SDManager::GetSDMpointer()->AddNewDetector(m_MicroballScorer) ;
+ // This check is necessary in case the geometry is reloaded
+ bool already_exist = false;
+ m_MicroballScorer = CheckScorer("MicroballScorer",already_exist) ;
+
+ if(already_exist)
+ return ;
+
+ // Otherwise the scorer is initialised
+ vector<int> level; level.push_back(0);
+ G4VPrimitiveScorer* Calorimeter= new CALORIMETERSCORERS::PS_CalorimeterWithInteraction("Calorimeter",level, 0) ;
+ //and register it to the multifunctionnal detector
+ m_MicroballScorer->RegisterPrimitive(Calorimeter);
+ G4SDManager::GetSDMpointer()->AddNewDetector(m_MicroballScorer) ;
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
@@ -3199,7 +3220,7 @@ void Microball::InitializeScorers() {
// Construct Method to be pass to the DetectorFactory //
////////////////////////////////////////////////////////////////////////////////
NPS::VDetector* Microball::Construct(){
- return (NPS::VDetector*) new Microball();
+ return (NPS::VDetector*) new Microball();
}
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo......
@@ -3207,13 +3228,13 @@ NPS::VDetector* Microball::Construct(){
// Registering the construct method to the factory //
////////////////////////////////////////////////////////////////////////////////
extern"C" {
- class proxy_nps_plastic{
+ class proxy_nps_plastic{
public:
- proxy_nps_plastic(){
- NPS::DetectorFactory::getInstance()->AddToken("Microball","Microball");
- NPS::DetectorFactory::getInstance()->AddDetector("Microball",Microball::Construct);
- }
- };
-
- proxy_nps_plastic p_nps_plastic;
+ proxy_nps_plastic(){
+ NPS::DetectorFactory::getInstance()->AddToken("Microball","Microball");
+ NPS::DetectorFactory::getInstance()->AddDetector("Microball",Microball::Construct);
+ }
+ };
+
+ proxy_nps_plastic p_nps_plastic;
}