def explore_decenter_parameter_space(decenter_parameter, values):
for _value in values:
print _value
# Build .seq file for automated run.
TEL = autoact.AutoACT(ARRAY,
descriptors=[
"secondary_decentering",
"pa%s" % (ARRAY), decenter_parameter, _value
])
TEL.create_header()
TEL.load_clean_len()
TEL.remove_glass()
TEL.apply_ar_coatings()
TEL.set_wavelengths(
wavelengths=[int(autov.freq2lambda(int(args.frequency)))],
reference=0)
# surface 4 is the secondary
TEL.set_decenter_type(4, 'decenter and return')
TEL.decenter_surface(4, decenter_parameter, _value)
TEL.set_fields(polarization=1)
TEL.set_vignetting()
TEL.activate_pol_ray_trace()
TEL.set_image_semi_aperture()
TEL.run_psf()
TEL.run_real_ray_trace()
# skipping polarization analysis, since it'll just slow us down for now
#TEL.run_poldsp(input_angle=0, pupil_number=23)
#TEL.run_poldsp(input_angle=90, pupil_number=23)
TEL.exit()
TEL.run()
file_name = TEL.save_cfg(out_dir="./output/")
def test_decenter(parameter, values, units):
for value in values:
if parameter in ['x', 'y', 'z']:
descriptors = [
parameter, "%smm" % (int(value * 10))
] # Note, this is done to avoid a decimal in the filename!
else:
descriptors = [parameter, "%sdeg" % (str(value).replace('.', 'p'))]
# Build .seq file for automated run.
arc_autov = autoact.AutoACT(ARRAY, descriptors)
decenter_description_dict = {
"type": "decenter",
"parameter": parameter,
"offset": value,
"units": units
}
arc_autov.add_to_json_cfg("perturbation", decenter_description_dict)
arc_autov.create_header()
arc_autov.load_clean_len()
arc_autov.remove_glass()
arc_autov.apply_ar_coatings()
if ARRAY in ['1', '2']:
arc_autov.set_wavelengths(wavelengths=[2140000, 2070000, 2000000],
reference=1) # ar1, ar2
elif ARRAY in ['3']:
#arc_autov.set_wavelengths(wavelengths=[3000000, 2070000, 1380000], reference=0) # ar3
raise ValueError("Array 3 not yet supported.")
# Test
arc_autov.decenter_cryostat(parameter, value)
arc_autov.set_fields()
arc_autov.set_vignetting()
arc_autov.activate_pol_ray_trace()
arc_autov.set_image_semi_aperture()
# Setup to run tests in CODE V. These all need to be output to config files.
arc_autov.run_psf()
arc_autov.run_real_ray_trace()
arc_autov.run_poldsp(input_angle=0, pupil_number=23)
#arc_autov.run_poldsp(input_angle=90, pupil_number=23)
arc_autov.exit()
arc_autov.run()
arc_autov.save_cfg(out_dir="./output/optics_tube/%s_decenter/" %
(parameter))
def test_ar_coatings(coatings):
for (thicknesses, coating, descriptors) in coatings:
# Set ref_wl for file descriptors.
if ARRAY in ['1', '2']:
ref_wl = 2070000
elif ARRAY in ['3']:
raise ValueError("Array 3 not yet supported.")
#ref_wl = 3000000
# Build .seq file for automated run.
arc_autov = autoact.AutoACT(ARRAY, descriptors)
offset_value = (float(central_thicknesses[0] - thicknesses[0]) /
central_thicknesses[0]
) * 100 #percent difference from original thickness
index_variation_dict = {
"type": "arc_thickness",
"parameter": "index",
"offset": offset_value,
"units": "Percent"
}
arc_autov.add_to_json_cfg("perturbation", index_variation_dict)
arc_autov.create_header()
arc_autov.load_clean_len()
arc_autov.remove_glass()
arc_autov.apply_ar_coatings(coating_file=coating)
if ARRAY in ['1', '2']:
arc_autov.set_wavelengths(wavelengths=[2140000, 2070000, 2000000],
reference=1) # ar1, ar2
elif ARRAY in ['3']:
#arc_autov.set_wavelengths(wavelengths=[3000000, 2070000, 1380000], reference=0) # ar3
raise ValueError("Array 3 not yet supported.")
arc_autov.set_fields()
arc_autov.set_vignetting()
arc_autov.activate_pol_ray_trace()
arc_autov.set_image_semi_aperture()
arc_autov.run_psf()
arc_autov.run_real_ray_trace()
arc_autov.run_poldsp(input_angle=0, pupil_number=23)
#arc_autov.run_poldsp(input_angle=90, pupil_number=23)
arc_autov.exit()
arc_autov.run()
arc_autov.save_cfg(out_dir="./output/arc_thickness/")
parser = argparse.ArgumentParser()
parser.add_argument("array",
choices=['1', '2', '3'],
help="Array you want to automate.")
args = parser.parse_args()
ARRAY = args.array
DATE = time.strftime('%Y%m%d')
CTIME = int(time.time())
outDir = "E:\ownCloud\optics\data\\"
tmpDir = "E:\ownCloud\optics\data\\tmp\\"
#autoseq = "pa%s_automation.seq"%ARRAY
# Build .seq file for automated run.
qq = autoact.AutoACT(ARRAY, [""])
qq.create_header()
qq.load_clean_len()
qq.remove_glass()
qq.apply_ar_coatings()
if ARRAY in ['1', '2']:
qq.set_wavelengths(wavelengths=[2140000, 2070000, 2000000],
reference=1) # ar1, ar2
elif ARRAY in ['3']:
qq.set_wavelengths(wavelengths=[3000000, 2070000, 1380000],
reference=0) # ar3
qq.set_fields()
qq.set_vignetting()
qq.activate_pol_ray_trace()
qq.set_image_semi_aperture()
#qq.quick_best_focus()
choices=['1', '2', '3', '4', '5', '6'],
help="Array you want to automate.")
parser.add_argument(
"frequency",
help="Frequency to run the Code V calculations at in units of GHz.")
args = parser.parse_args()
ARRAY = args.array
DATE = time.strftime('%Y%m%d')
CTIME = int(time.time())
outDir = "E:\ownCloud\optics\data\\"
tmpDir = "E:\ownCloud\optics\data\\tmp\\"
# Build .seq file for automated run.
qq = autoact.AutoACT(ARRAY, descriptors=["calibration", "pa%s" % (ARRAY)])
qq.create_header()
qq.load_clean_len()
qq.remove_glass()
qq.apply_ar_coatings()
qq.set_wavelengths(wavelengths=[int(autov.freq2lambda(int(args.frequency)))],
reference=0)
qq.set_fields(polarization=1)
qq.set_vignetting()
qq.activate_pol_ray_trace()
qq.set_image_semi_aperture()
#qq.run_psf()
#qq.run_real_ray_trace()
#qq.run_poldsp(input_angle=0, pupil_number=23)
#qq.run_poldsp(input_angle=90, pupil_number=23)
#qq.exit()
help="Frequency to run the Code V calculations at in units of GHz.")
args = parser.parse_args()
ARRAY = args.array
DATE = time.strftime('%Y%m%d')
CTIME = int(time.time())
outDir = "E:\ownCloud\optics\data\\"
tmpDir = "E:\ownCloud\optics\data\\tmp\\"
coating, descriptors = (
r"E:\ownCloud\optics\mul\hf\three_layer_coating_120_185_285.mul",
["calibration", "pa%s" % (ARRAY)])
# Build .seq file for automated run.
arc_autov = autoact.AutoACT(ARRAY, descriptors)
arc_autov.create_header()
arc_autov.load_clean_len()
arc_autov.remove_glass()
arc_autov.enter_single_command('THC S47 100') # freeze focal plane
arc_autov.enter_single_command('CCY S45 100') # freeze l3_b y-radius
arc_autov.enter_single_command('CCY S41 100') # freeze l3_b y-radius
arc_autov.apply_ar_coatings(coating_file=coating)
arc_autov.set_wavelengths(wavelengths=[int(autov.freq2lambda(args.frequency))],
reference=0)
arc_autov.set_fields(polarization=1)
arc_autov.set_vignetting()
arc_autov.activate_pol_ray_trace()
arc_autov.set_image_semi_aperture()
arc_autov.run_psf()
arc_autov.run_real_ray_trace()
"-V",
"--view",
help=
"View only. Don't run the analysis steps, or save any cfg files. Will cause Code V not to exit after setup.",
action="store_false")
args = parser.parse_args()
ARRAY = args.array
DATE = time.strftime('%Y%m%d')
CTIME = int(time.time())
outDir = "E:\ownCloud\optics\data\\"
tmpDir = "E:\ownCloud\optics\data\\tmp\\"
# Build .seq file for automated run.
qq = autoact.AutoACT(ARRAY, descriptors=["ip_leakage", "pa%s" % (ARRAY)])
qq.create_header()
qq.load_clean_len()
qq.remove_glass()
qq.apply_ar_coatings()
qq.set_wavelengths(wavelengths=[int(autov.freq2lambda(int(args.frequency)))],
reference=0)
qq.set_fields(polarization=0)
qq.set_vignetting()
qq.activate_pol_ray_trace()
qq.set_image_semi_aperture()
if args.view:
qq.run_psf()
qq.run_real_ray_trace()
qq.run_poldsp(input_angle=0, pupil_number=23)
# Parse arguments passed to the script.
parser = argparse.ArgumentParser()
parser.add_argument("array", choices=['1', '2', '3', '4', '5', '6'], help="Array you want to automate.")
parser.add_argument("frequency", help="Frequency to run the Code V calculations at in units of GHz.")
parser.add_argument("-V", "--view", help="View only. Don't run the analysis steps, or save any cfg files. Will cause Code V not to exit after setup.", action="store_false")
args = parser.parse_args()
ARRAY = args.array
DATE = time.strftime('%Y%m%d')
CTIME = int(time.time())
outDir = "E:\ownCloud\optics\data\\"
tmpDir = "E:\ownCloud\optics\data\\tmp\\"
# Build .seq file for automated run.
qq = autoact.AutoACT(ARRAY, descriptors=["mueller", "pa%s"%(ARRAY)])
qq.create_header()
qq.load_clean_len()
qq.remove_glass()
qq.apply_ar_coatings()
qq.set_wavelengths(wavelengths=[int(autov.freq2lambda(int(args.frequency)))], reference=0)
qq.set_fields(polarization=0)
qq.enter_single_command("INS S1") # insert dummy surface for mmtab
for i in range(24):
qq.enter_single_command("DEL F1+1") # insert dummy surface for mmtab
qq.set_vignetting()
qq.activate_pol_ray_trace()
qq.set_image_semi_aperture()