gtsimulation.Particle package

Subpackages

• gtsimulation.Particle.Generators package
  • Submodules
    • AbsDistribution
      • AbsDistribution.generate_coordinates()
      • AbsDistribution.generate_random_v()
      • AbsDistribution.generate_v_pitch()
      • AbsDistribution.to_string()
    • Disk
      • Disk.generate_coordinates()
      • Disk.to_string()
    • GeneratorModes
      • GeneratorModes.Inward
      • GeneratorModes.Outward
    • SphereSurf
      • SphereSurf.generate_coordinates()
      • SphereSurf.to_string()
    • SphereVol
      • SphereVol.generate_coordinates()
      • SphereVol.to_string()
    • UserInput
      • UserInput.generate_coordinates()
      • UserInput.to_string()
    • AbsSpectrum
      • AbsSpectrum.generate_energy_spectrum()
      • AbsSpectrum.to_string()
    • ContinuumSpectrum
      • ContinuumSpectrum.generate_energy_spectrum()
      • ContinuumSpectrum.to_string()
    • ForceField
      • ForceField.generate_energy_spectrum()
      • ForceField.to_string()
    • Monolines
      • Monolines.generate_energy_spectrum()
      • Monolines.to_string()
    • PowerSpectrum
      • PowerSpectrum.generate_energy_spectrum()
      • PowerSpectrum.to_string()
    • Uniform
      • Uniform.generate_energy_spectrum()
      • Uniform.to_string()
    • UserInput
      • UserInput.generate_energy_spectrum()
      • UserInput.to_string()
  • Module contents

Submodules

class gtsimulation.Particle.Flux.Flux(Spectrum: AbsSpectrum, Distribution: AbsDistribution, Names=None, PDGcode=None, Nevents: int = 1, V0=None, Mode: GeneratorModes | str = GeneratorModes.Inward, *args, **kwargs)

Bases: Sequence

generate()

generate_coordinates(*args, **kwargs)

generate_energy_spectrum(*args, **kwargs)

generate_particles()

to_string()

class gtsimulation.Particle.Flux.FluxPitchPhase(Bfield, Pitch=None, Phase=None, *args, **kwargs)

Bases: Flux

to_string()

class gtsimulation.Particle.Flux.GyroCenterFlux(Bfield, Pitchd, Phased, CooGyr, *args, **kwargs)

Bases: Flux

generate()

static larmor(T, Bm, M, Z, pitchd)

Parameters:

• T – kinetic energy in MeV

• Bm – Magnetic field intensity in nT

• M – mass in MeV

• Z – charge number

• pitchd – pitch angle in degree

Returns:

Output larmor radius in m

to_string()

gtsimulation.Particle.GeneratorCR.ConvertUnits(Energy, FromUnits, ToUnits, M, A, Z)

gtsimulation.Particle.GeneratorCR.GeneratorCR(Source, Spectrum, Particle, Nevents=1, Verbose=0)

gtsimulation.Particle.GeneratorCR.GetGCRflux(E_type, E, F, PartName=None)

gtsimulation.Particle.GeneratorCR.GetParticleArguments(ParticleArguments)

gtsimulation.Particle.GeneratorCR.GetSourceArguments(SourceArguments)

gtsimulation.Particle.GeneratorCR.GetSpectrumArguments(SpectrumArguments)

class gtsimulation.Particle.Particle.CRParticle(r=array([1, 0, 0]), v=array([1, 0, 0]), T=1, E=None, **kwargs)

Bases: Particle

class gtsimulation.Particle.Particle.Particle(Name=None, PDG=None)

Bases: object

gtsimulation.Particle.functions.ConvertR2T(R, M, A, Z)

gtsimulation.Particle.functions.ConvertT2R(T, M, A, Z)

gtsimulation.Particle.functions.GetAntiParticle(particle)

gtsimulation.Particle.functions.convert_units(energy, from_units, to_units, m, a, z)

Module contents