def get_energy(self):
energy = plane.Energy()
lower = 1.0
upper = 2.0
lower1 = 1.1
upper1 = 2.1
lower2 = 1.2
upper2 = 2.2
samples = [
shape.SubInterval(lower, lower1),
shape.SubInterval(lower2, upper),
shape.SubInterval(upper1, upper2)
]
interval = shape.Interval(lower, upper2, samples)
energy.bounds = interval
energy.dimension = 100
energy.resolving_power = 2.0
energy.sample_size = 1.1
energy.bandpass_name = "e"
if self.caom_version >= 24:
energy.energy_bands.add(plane.EnergyBand.GAMMARAY)
energy.energy_bands.add(plane.EnergyBand.OPTICAL)
energy.transition = wcs.EnergyTransition("species", "transition")
return energy
def get_spectral_wcs(self):
axis = self.get_coord_axis1d()
energy = chunk.SpectralWCS(axis, "energy specsys")
if self.complete:
energy.ssysobs = "energy ssysobs"
energy.ssyssrc = "energy ssyssrc"
energy.restfrq = 1.0
energy.restwav = 2.0
energy.velosys = 3.0
energy.zsource = 4.0
energy.velang = 5.0
energy.bandpassName = "energy bandpassName"
energy.resolvingPower = 6.0
energy.transition = wcs.EnergyTransition("H", "21cm")
return energy
def __init__(self):
pass
@staticmethod
def good_wcs(self):
return None
@staticmethod
def bad_wcs(self):
return None
# There's got to be a better way to do this, but of the 2 ways I tried,
# none is really great. Leaving these here for now.
BANDPASS_NAME = "H-Alpha-narrow"
TRANSITION = wcs.EnergyTransition("H", "alpha")
class EnergyTestUtil:
def __init__(self):
pass
@staticmethod
def good_wcs():
px = float(0.5)
sx = float(400.0)
nx = float(200.0)
ds = float(1.0)
# SpectralWCS
energy = EnergyTestUtil.getTestRange(True, px, sx * nx * ds, nx, ds)