Geant4 11.4.0
Toolkit for the simulation of the passage of particles through matter
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G4TUniformMagneticField Class Reference

G4TUniformMagneticField is a templated version of G4UniformMagneticField. More...

#include <G4TUniformMagneticField.hh>

Inheritance diagram for G4TUniformMagneticField:

Public Member Functions

 G4TUniformMagneticField (const G4ThreeVector &FieldVector)
 G4TUniformMagneticField (G4double vField, G4double vTheta, G4double vPhi)
virtual ~G4TUniformMagneticField ()=default
 G4TUniformMagneticField (const G4TUniformMagneticField &p)
G4TUniformMagneticFieldoperator= (const G4TUniformMagneticField &p)
void GetFieldValue (const G4double yTrack[4], G4double *B) const
void SetFieldValue (const G4ThreeVector &newFieldVector)
G4ThreeVector GetConstantFieldValue () const
virtual G4TUniformMagneticFieldClone () const
Public Member Functions inherited from G4MagneticField
 G4MagneticField ()
 ~G4MagneticField () override=default
 G4MagneticField (const G4MagneticField &r)
G4MagneticFieldoperator= (const G4MagneticField &p)
G4bool DoesFieldChangeEnergy () const override
G4FieldType GetFieldType () const override
Public Member Functions inherited from G4Field
 G4Field (G4bool gravityOn=false)
virtual ~G4Field ()=default
 G4Field (const G4Field &p)=default
G4Fieldoperator= (const G4Field &p)
G4bool IsGravityActive () const
void SetGravityActive (G4bool OnOffFlag)

Additional Inherited Members

Static Public Attributes inherited from G4Field
static constexpr G4int MAX_NUMBER_OF_COMPONENTS = 24

Detailed Description

G4TUniformMagneticField is a templated version of G4UniformMagneticField.

Definition at line 47 of file G4TUniformMagneticField.hh.

Constructor & Destructor Documentation

◆ G4TUniformMagneticField() [1/3]

G4TUniformMagneticField::G4TUniformMagneticField ( const G4ThreeVector & FieldVector)
inline

Definition at line 51 of file G4TUniformMagneticField.hh.

53 {
54 fFieldComponents[0] = FieldVector.x();
55 fFieldComponents[1] = FieldVector.y();
56 fFieldComponents[2] = FieldVector.z();
57 }
double z() const
double x() const
double y() const

Referenced by Clone(), G4TUniformMagneticField(), and operator=().

◆ G4TUniformMagneticField() [2/3]

G4TUniformMagneticField::G4TUniformMagneticField ( G4double vField,
G4double vTheta,
G4double vPhi )
inline

Definition at line 60 of file G4TUniformMagneticField.hh.

63 {
64 if ( (vField<0) || (vTheta<0) || (vTheta>pi) || (vPhi<0) || (vPhi>twopi) )
65 {
66 G4Exception("G4TUniformMagneticField::G4TUniformMagneticField()",
67 "GeomField0002", FatalException, "Invalid parameters.") ;
68 }
69 fFieldComponents[0] = vField*std::sin(vTheta)*std::cos(vPhi) ;
70 fFieldComponents[1] = vField*std::sin(vTheta)*std::sin(vPhi) ;
71 fFieldComponents[2] = vField*std::cos(vTheta) ;
72 }
@ FatalException
void G4Exception(const char *originOfException, const char *exceptionCode, G4ExceptionSeverity severity, const char *description)

◆ ~G4TUniformMagneticField()

virtual G4TUniformMagneticField::~G4TUniformMagneticField ( )
virtualdefault

◆ G4TUniformMagneticField() [3/3]

G4TUniformMagneticField::G4TUniformMagneticField ( const G4TUniformMagneticField & p)
inline

Definition at line 76 of file G4TUniformMagneticField.hh.

78 {
79 for (G4int i=0; i<3; ++i)
80 fFieldComponents[i] = p.fFieldComponents[i];
81 }
int G4int
Definition G4Types.hh:85

Member Function Documentation

◆ Clone()

virtual G4TUniformMagneticField * G4TUniformMagneticField::Clone ( ) const
inlinevirtual

Interface method to implement cloning, needed by multi-threading. Here issuing a fatal exception, as expecting this to be implemented concretely in derived classes.

Reimplemented from G4Field.

Definition at line 116 of file G4TUniformMagneticField.hh.

117 {
118 return new G4TUniformMagneticField( G4ThreeVector(this->fFieldComponents[0],
119 this->fFieldComponents[1],
120 this->fFieldComponents[2]) );
121 }
CLHEP::Hep3Vector G4ThreeVector
G4TUniformMagneticField(const G4ThreeVector &FieldVector)

◆ GetConstantFieldValue()

G4ThreeVector G4TUniformMagneticField::GetConstantFieldValue ( ) const
inline

Definition at line 107 of file G4TUniformMagneticField.hh.

108 {
109 G4ThreeVector B(fFieldComponents[0],
110 fFieldComponents[1],
111 fFieldComponents[2]);
112 return B;
113 }
G4double B(G4double temperature)

◆ GetFieldValue()

void G4TUniformMagneticField::GetFieldValue ( const G4double Point[4],
G4double * Bfield ) const
inlinevirtual

Given the position time vector 'Point', returns the value of the field in the array 'Bfield'.

Parameters
[in]PointThe position time vector.
[out]BfieldThe field array in output.

Implements G4MagneticField.

Definition at line 92 of file G4TUniformMagneticField.hh.

94 {
95 B[0]= fFieldComponents[0] ;
96 B[1]= fFieldComponents[1] ;
97 B[2]= fFieldComponents[2] ;
98 }

◆ operator=()

G4TUniformMagneticField & G4TUniformMagneticField::operator= ( const G4TUniformMagneticField & p)
inline

Definition at line 83 of file G4TUniformMagneticField.hh.

85 {
86 if (&p == this) return *this;
87 for (G4int i=0; i<3; ++i)
88 fFieldComponents[i] = p.fFieldComponents[i];
89 return *this;
90 }

◆ SetFieldValue()

void G4TUniformMagneticField::SetFieldValue ( const G4ThreeVector & newFieldVector)
inline

Definition at line 100 of file G4TUniformMagneticField.hh.

101 {
102 fFieldComponents[0] = newFieldVector.x();
103 fFieldComponents[1] = newFieldVector.y();
104 fFieldComponents[2] = newFieldVector.z();
105 }

The documentation for this class was generated from the following file: