XPhysicalLattice.cc

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#include "XPhysicalLattice.hh"
#include "G4VPhysicalVolume.hh"
#include "G4PhysicalConstants.hh"
#include "G4SystemOfUnits.hh"

#include "G4LogicalVolume.hh"
#include "G4Box.hh"

XPhysicalLattice::XPhysicalLattice(){
    fLattice=NULL;
    fVolume=NULL;
    fTheta=0.;
    fPhi=0.;
    fOmega=0.;

    
    fCurvatureRadius = G4ThreeVector(0.,0.,0.); // if cr = 0 == no bending
    fThermalVibrationAmplitude = 0.1 * angstrom; // no physical meaning
    fMillerOrientation[0] = 2;
    fMillerOrientation[1] = 2;
    fMillerOrientation[2] = 0;
}

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XPhysicalLattice::XPhysicalLattice(G4VPhysicalVolume* Vol,
                                   XLogicalLattice* Lat){
    fLattice=Lat;
    fVolume=Vol;
    fA=fLattice->GetAnhDecConstant();
    fB=fLattice->GetScatteringConstant();
    fDosL=fLattice->GetLDOS();
    fDosST=fLattice->GetSTDOS();
    fDosFT=fLattice->GetFTDOS();
    fBeta=fLattice->GetBeta();
    fGamma=fLattice->GetGamma();
    fLambda=fLattice->GetLambda();
    fMu=fLattice->GetMu();
    
    G4RotationMatrix *rot = fVolume->GetObjectRotation();
    
    fGlobalToLocal = G4AffineTransform(*rot);
    fLocalToGlobal = fGlobalToLocal.Invert();
}

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XPhysicalLattice::~XPhysicalLattice(){;}

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void XPhysicalLattice::SetDynamicalConstants(double Beta,
                                             double Gamma,
                                             double Lambda,
                                             double Mu)
{
    fBeta=Beta;
    fGamma=Gamma;
    fLambda=Lambda;
    fMu=Mu;
}

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void XPhysicalLattice::SetScatteringConstant(G4double a){
    fA=a;
}

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void XPhysicalLattice::SetAnhDecConstant(G4double b){
    fB=b;
}

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void XPhysicalLattice::SetLDOS(double LDOS){
    fDosL=LDOS;
}

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void XPhysicalLattice::SetSTDOS(double STDOS)
{
    fDosST = STDOS;
}

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void XPhysicalLattice::SetFTDOS(double FTDOS){
    fDosFT = FTDOS;
}

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double XPhysicalLattice::GetBeta(){
    return fBeta;
}

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double XPhysicalLattice::GetGamma(){
    return fGamma;
}

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double XPhysicalLattice::GetLambda(){
    return fLambda;
}

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double XPhysicalLattice::GetMu()
{
    return fMu;
}

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G4double XPhysicalLattice::GetScatteringConstant()
{
    return fB;
}

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G4double XPhysicalLattice::GetAnhDecConstant()
{
    return fA;
}

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double XPhysicalLattice::GetLDOS(){
    return fDosL;
}

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double XPhysicalLattice::GetSTDOS(){
    return fDosST;
}

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double XPhysicalLattice::GetFTDOS()
{
    return fDosFT;
}

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//Loads the group velocity in m/s
double XPhysicalLattice::MapKtoV(int polarizationState, G4ThreeVector k){
    double groupVelocity;
    
    k.rotate(G4ThreeVector(0,1,0), fTheta).rotate(G4ThreeVector(0,0,1), fPhi);
    groupVelocity = fLattice->MapKtoV(polarizationState, k);
    k.rotate(G4ThreeVector(0,0,1), -fPhi).rotate(G4ThreeVector(0,1,0), -fTheta);
    
    return groupVelocity;
}

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//Loads the normalized direction vector along VG
G4ThreeVector XPhysicalLattice::MapKtoVDir(int polarizationState,
                                           G4ThreeVector k){
    
    G4ThreeVector GroupVelocity;
    
    k=k.rotate(G4ThreeVector(0,1,0), fTheta).rotate(G4ThreeVector(0,0,1), fPhi);
    GroupVelocity = fLattice->MapKtoVDir(polarizationState, k);
    
    return GroupVelocity.rotate(G4ThreeVector(0,0,1), -fPhi)
        .rotate(G4ThreeVector(0,1,0), -fTheta).unit();
}

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G4VPhysicalVolume* XPhysicalLattice::GetVolume(){
    return fVolume;
}

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void XPhysicalLattice::SetPhysicalVolume(G4VPhysicalVolume* Vol){
    fVolume=Vol;
}

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void XPhysicalLattice::SetLatticeOrientation(G4double t_rot, G4double p_rot){
    fTheta=t_rot;
    fPhi= p_rot;
}

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void XPhysicalLattice::SetLatticeOrientation(G4double t_rot,
                                             G4double o_rot,
                                             G4double p_rot){
    fTheta = t_rot;
    fOmega = o_rot;
    fPhi = p_rot;
}

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void XPhysicalLattice::SetMillerOrientation(int l, int k, int n){
    //fTheta=pi/2-std::atan2(n+0.000001,l+0.000001)*rad;
    //fPhi=pi/2-std::atan2(l+0.000001,k+0.000001)*rad;
    
    // // // added for channeling // // //
    fMillerOrientation[0]=l;
    fMillerOrientation[1]=k;
    fMillerOrientation[2]=n;
    // // // // // // // // // // // // //
}

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void XPhysicalLattice::SetXLogicalLattice(XLogicalLattice* Lat){
    fLattice=Lat;
}

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// Begin Channeling specific code
//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo....


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void XPhysicalLattice::
SetThermalVibrationAmplitude(G4double vThermalVibrationAmplitude){
    fThermalVibrationAmplitude = vThermalVibrationAmplitude;
}

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G4double XPhysicalLattice::GetThermalVibrationAmplitude(){
    return fThermalVibrationAmplitude;
}

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G4ThreeVector XPhysicalLattice::
ProjectMomentumVectorFromWorldToLattice(G4ThreeVector vMomentum,
                                        G4ThreeVector vPosition){
    vMomentum.rotate(G4ThreeVector(1.,0.,0.),fOmega)
        .rotate(G4ThreeVector(0.,1.,0.), fTheta)
        .rotate(G4ThreeVector(0.,0.,1.), fPhi);

    if(IsBent() ){
        G4ThreeVector vBendingAngle = ComputeBendingAngle(vPosition);
        vMomentum.rotate(G4ThreeVector(1.,0.,0.), vBendingAngle.z())
            .rotate(G4ThreeVector(0.,1.,0.),vBendingAngle.x());
    }

    return vMomentum;
}

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G4ThreeVector XPhysicalLattice::
ProjectMomentumVectorFromLatticeToWorld(G4ThreeVector vMomentum,
                                        G4ThreeVector vPosition){
    vMomentum.rotate(G4ThreeVector(0.,0.,1.), -fPhi)
        .rotate(G4ThreeVector(0.,1.,0.), -fTheta)
        .rotate(G4ThreeVector(1.,0.,0.), fOmega);
    
    if(IsBent() ){
        G4ThreeVector vBendingAngle = ComputeBendingAngle(vPosition);
        vMomentum.rotate(G4ThreeVector(0.,1.,0.), -vBendingAngle.x())
            .rotate(G4ThreeVector(1.,0.,0.), -vBendingAngle.z());
    }

    return vMomentum;
}

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G4ThreeVector XPhysicalLattice::GetLatticeDirection(G4ThreeVector vPosition){
    return ProjectMomentumVectorFromLatticeToWorld(G4ThreeVector(0.,0.,1.),
                                                   vPosition);
}

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void XPhysicalLattice::SetUnitCell(XUnitCell* cell){
    fUnitCell = cell;
}

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XUnitCell* XPhysicalLattice::GetXUnitCell(){
    return fUnitCell;
}

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void XPhysicalLattice::SetCurvatureRadius(G4ThreeVector cr){
    fCurvatureRadius =  cr;
}

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G4ThreeVector XPhysicalLattice::GetCurvatureRadius(){
    return fCurvatureRadius;
}

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G4bool XPhysicalLattice::IsBent(){
    if(fCurvatureRadius.x() != 0.) {
        return true;
    }
    else {
        return false;
    }
}

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G4ThreeVector XPhysicalLattice::ComputeBendingAngle(G4ThreeVector vPosition){

    G4double vAngleX = 0.;
    G4double vAngleY = 0.;
    
    if(GetCurvatureRadius().x() != 0){
        vAngleX = vPosition.phi();
    }
    
    return G4ThreeVector(vAngleX,0.,vAngleY);
}

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XLogicalLattice* XPhysicalLattice::GetLogicalLattice(){
    return fLattice;
}

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G4int XPhysicalLattice::GetMiller(G4int vIndex){
    if(vIndex<3 && vIndex>=0)
        return fMillerOrientation[vIndex];
    else return -1;
}

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G4ThreeVector XPhysicalLattice::GetLatticeAngles(){
    return G4ThreeVector(fPhi,fTheta,fOmega);
}

//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo....

G4double XPhysicalLattice::ComputeInterplanarPeriod(){
    G4double vInterplanarPeriod =
        GetXUnitCell()->ComputeDirectPeriod(GetMiller(0),
                                            GetMiller(1),
                                            GetMiller(2));
    return vInterplanarPeriod;
}

//....oooOO0OOooo........oooOO0OOooo........oooOO0OOooo........oooOO0OOooo....