def default_bgsubtraction(x, y, endpoint_size=10, endpoint_right=10):
"""
Return a function that linearly interpolates between the lower and upper
x values of the dataset specified by x and y
"""
bgx = np.concatenate((x[:endpoint_size], x[-endpoint_right:]))
bgy = np.concatenate((y[:endpoint_size], y[-endpoint_right:]))
interp_func = rldeconvolution.extrap1d(interp1d(bgx, bgy))
return interp_func
def default_bgsubtraction(x, y, endpoint_size=10, endpoint_right=10):
"""
Return a function that linearly interpolates between the lower and upper
x values of the dataset specified by x and y
"""
bgx = np.concatenate((x[:endpoint_size], x[-endpoint_right:]))
bgy = np.concatenate((y[:endpoint_size], y[-endpoint_right:]))
interp_func = rldeconvolution.extrap1d(interp1d(bgx, bgy))
return interp_func
def bgsubtract(npulses, attenuation, nframes, kaptonfactor=1.0, airfactor=1.0):
darksub = dark_subtraction(npulses, nframes)
airsub = airfactor * air_scatter2(npulses, attenuation, nframes)
if kaptonfactor: # kaptonsub != 0
kaptonsub = kaptonfactor * kapton_only(npulses, attenuation, nframes)
else:
kaptonsub = 0.0
interp_func = lambda x, y: rldeconvolution.extrap1d(interp1d(x, kaptonsub + darksub + airsub))
return interp_func
def bgsubtract(npulses, attenuation, nframes, kaptonfactor=1., airfactor=1.):
darksub = dark_subtraction(npulses, nframes)
airsub = airfactor * air_scatter2(npulses, attenuation, nframes)
if kaptonfactor: # kaptonsub != 0
kaptonsub = kaptonfactor * kapton_only(npulses, attenuation, nframes)
else:
kaptonsub = 0.0
interp_func = lambda x, y: rldeconvolution.extrap1d(
interp1d(x, kaptonsub + darksub + airsub))
return interp_func