import radiopropa
import numpy as np
iceModel = radiopropa.GorhamIceModel()
if __name__ == "__main__":
# simulation setup
sim = radiopropa.ModuleList()
sim.add(radiopropa.PropagationCK(iceModel, 1E-8, .001, 1.))
# Observer to stop imulation at =0m and z=300m
obs = radiopropa.Observer()
obsz = radiopropa.ObserverSurface(
radiopropa.Plane(radiopropa.Vector3d(0, 0, 0),
radiopropa.Vector3d(0, 0, 1)))
obs.add(obsz)
obs.setDeactivateOnDetection(True)
sim.add(obs)
obs2 = radiopropa.Observer()
obsz2 = radiopropa.ObserverSurface(
radiopropa.Plane(radiopropa.Vector3d(0, 0, -300),
radiopropa.Vector3d(0, 0, 1)))
obs.add(obsz2)
obs2.setDeactivateOnDetection(True)
sim.add(obs2)
# Output
output = radiopropa.HDF5Output('output_traj.h5',
radiopropa.Output.Trajectory3D)
output.setLengthScale(radiopropa.meter)
new_direction = V - u*2
candidate.current.setDirection(new_direction)
# update position slightly to move on correct side of plane
X = candidate.current.getPosition()
candidate.current.setPosition(X + new_direction * candidate.getCurrentStep())
# update position (this is a hack to avoid double scatter)
#candidate.previous.setPosition(candidate.current.getPosition())
# simulation setup
sim = radiopropa.ModuleList()
sim.add(radiopropa.PropagationCK(radiopropa.ScalarField()))
#sim.add(radiopropa.SimplePropagation(.1*radiopropa.meter, 1*radiopropa.meter))
#obs = radiopropa.Observer()
#obs.add(ObserverPlane(np.asarray([0.,0., 3. * kilo*radiopropa.meter]),np.asarray([10.,0, 0]), np.asarray([0,10., 0])))
#obs = radiopropa.Observer()
#obs.add(radiopropa.ObserverLargeSphere(radiopropa.Vector3d(0,0,0), 99*radiopropa.meter))
output = radiopropa.HDF5Output('output_traj.h5', radiopropa.Output.Trajectory3D)
#output.enableProperty('frequency', 0., 'Frequency for RadioPropa')
#obs.onDetection(output)
#obs.setDeactivateOnDetection(True)
import radiopropa
import numpy as np
#from ObserverPlane import ObserverPlane
# simulation setup
sim = radiopropa.ModuleList()
field = radiopropa.LinearIncrease(1E9, radiopropa.Vector3d(0, 0, -1))
sim.add(radiopropa.PropagationCK(field, 1E-20, .0001, 1.))
#obs = radiopropa.Observer()
#obs.add(ObserverPlane(np.asarray([0.,0., 3. * kilo*radiopropa.meter]),np.asarray([10.,0, 0]), np.asarray([0,10., 0])))
#obs = radiopropa.Observer()
#obs.add(radiopropa.ObserverLargeSphere(radiopropa.Vector3d(0,0,0), 99*radiopropa.meter))
output = radiopropa.HDF5Output('output_traj.h5',
radiopropa.Output.Trajectory3D)
output.setLengthScale(radiopropa.meter)
#output.enableProperty('frequency', 0., 'Frequency for RadioPropa')
#obs.onDetection(output)
#obs.setDeactivateOnDetection(True)
sim.add(output)
source = radiopropa.Source()
source.add(radiopropa.SourcePosition(radiopropa.Vector3d(0, 0, 0)))
source.add(radiopropa.SourceParticleType(radiopropa.nucleusId(1, 1)))
source.add(radiopropa.SourceAmplitude(1))
#source.add(radiopropa.SourceIsotropicEmission())
#use implemented cloud model
cloud_h = 1000
#atmosphere as propagation medium with clouds from 1000 to 1500 m, weather at the ground: 300 Kelvin, 1000 mbar, 5% humidity
atmModel = radiopropa.CloudModel_atm(cloud_h, 1500, 300, 1000, 0.05)
n_clouds = atmModel.getValue(radiopropa.Vector3d(0, 0, cloud_h + 0.01))
n_air = atmModel.getValue(radiopropa.Vector3d(0, 0, cloud_h - 0.01))
airBoundary = radiopropa.Discontinuity(
radiopropa.Plane(radiopropa.Vector3d(0, 0, cloud_h),
radiopropa.Vector3d(0, 0, 1)), n_air,
n_clouds) #air topped with clouds
if __name__ == "__main__":
#simulation setup
sim = radiopropa.ModuleList()
sim.add(radiopropa.PropagationCK(atmModel, 1e-5, 0.1, 10))
#create telescope as spherical observer
obs = radiopropa.Observer()
obs_surface = radiopropa.ObserverSurface(
radiopropa.Sphere(radiopropa.Vector3d(17600, 0, 0), 100))
obs.add(obs_surface)
obs.setDeactivateOnDetection(True)
sim.add(obs)
#cut off all rays going into earth, too high and behind detector
end_planes = radiopropa.Observer()
end_plane_bottom = radiopropa.ObserverSurface(
radiopropa.Plane(radiopropa.Vector3d(0, 0, 0),
radiopropa.Vector3d(0, 0, -1)))
end_plane_top = radiopropa.ObserverSurface(