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from CpicImgSim.target import _sptype2num, hybrid_albedo_spectrum, star_photlam, spectrum_generator
from CpicImgSim.target import AlbedoCat, bcc_spectrum, planet_contrast, extract_target_x_y, TargetOjbect
from CpicImgSim.config import S
tests_folder = os.path.dirname(os.path.abspath(__file__))
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def test_target_object(self):
d_cstar= {
'magnitude': 5,
'ra': '120d',
'dec': '40d',
'distance': 10,
'sptype': 'F0III',
}
cstar = TargetOjbect(d_cstar)
self.assertEqual(cstar.sp_model == 'star')
d_cstar['is_blackbody'] = True
cstar = TargetOjbect(d_cstar)
self.assertEqual(cstar.sp_model == 'blackbody')
d_planet = {
'radius': 2,
'pangle': 60,
'coe_b': 0.3,
'coe_r': 0.7,
'separation': 0.5,
'phase_angle': 90,
}
old_planet = TargetOjbect(d_planet, cstar = cstar, sp_model='planet')
self.assertEqual(old_planet.sp_model == 'hybrid_planet')
d_planet['sp_model'] = 'bcc_planet'
d_planet['coe_cloud'] = 1
d_planet['coe_metal'] = 0
old_planet = TargetOjbect(d_planet, cstar = cstar, sp_model='planet')
self.assertEqual(old_planet.sp_model == 'bcc_planet')
self.assertRaises(Warning, TargetOjbect, d_cstar, cstar = cstar, sp_model='planet')
def test_image_input(self):
def test_bcc_class(self):
spectrum = AlbedoCat(90, 1, 0)
self.assertIsInstance(spectrum, S.spectrum.SpectralElement)
# import matplotlib.pyplot as plt
# plt.plot(spectrum.wave, spectrum.throughput)
# plt.show()
def test_bcc_func(self):
spectrum = bcc_spectrum(0.5, 0.5)
self.assertIsInstance(spectrum, S.spectrum.SpectralElement)
self.assertEqual(spectrum.waveunits.name, 'angstrom')
# import matplotlib.pyplot as plt
# plt.plot(spectrum.wave, spectrum.throughput)
# plt.xlabel(spectrum.waveunits)
# plt.show()
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def test_hybrid_albedo_spectrum(self):
planet = hybrid_albedo_spectrum(0.5, 1)
self.assertIsInstance(planet, S.spectrum.SpectralElement)
def test_sptype(self):
self.assertEqual(_sptype2num('M1V'), (6.1, 5))
self.assertEqual(_sptype2num('O5IV'), (0.5, 4))
self.assertEqual(_sptype2num('F3V'), (3.3, 5))
self.assertEqual(_sptype2num('K4.5II'), (5.45, 2))
self.assertEqual(_sptype2num('M1'), (6.1, 5))
self.assertEqual(_sptype2num('M'), (6, 5))
self.assertEqual(_sptype2num('K3Vvar'), (5.3, 5))
self.assertEqual(_sptype2num('F6Vbwvar'), (3.6, 5))
self.assertEqual(_sptype2num('K0IV SB'), (5.0, 4))
self.assertEqual(_sptype2num('F5V+'), (3.5, 5))
self.assertEqual(_sptype2num('G5IV/V +K1IV'), (4.5, 4))
self.assertEqual(_sptype2num('F7IV-V'), (3.7, 4))
self.assertEqual(_sptype2num('O4/O5IV'), (0.4, 5))
self.assertEqual(_sptype2num('G3/G5V'), (4.3, 5))
self.assertRaises(ValueError, _sptype2num, 'errorinput')
def test_star_photlam(self):
photlam = star_photlam(5, 'F0III', is_blackbody=True)
self.assertIsInstance(photlam, S.spectrum.SourceSpectrum)
photlam2 = star_photlam(5, 'F2II', is_blackbody=False)
self.assertIsInstance(photlam2, S.spectrum.SourceSpectrum)
photlam2 = star_photlam(5, 'F', is_blackbody=False)
self.assertIsInstance(photlam2, S.spectrum.SourceSpectrum)
photlam2 = star_photlam(5, 'F2', is_blackbody=False)
self.assertIsInstance(photlam2, S.spectrum.SourceSpectrum)
self.assertRaises(ValueError, star_photlam, 5, 'T0III', is_blackbody=1)
def test_planet_contrast(self):
contrast = planet_contrast(1, 0, 90, 1)
contrast_cal = (69_911 / 149_597_870.7)**2 / pi
self.assertAlmostEqual(contrast, contrast_cal)
self.assertRaises(ValueError, planet_contrast, 1, 0, 0, 1)
def test_extract_target_x_y(self):
target = {
'ra': '120d',
'dec': '40d',
'distance': 10,
}
x, y = extract_target_x_y(target, '120d', '40d')
self.assertAlmostEqual(x, 0)
self.assertAlmostEqual(y, 0)
x, y = extract_target_x_y(target, '120d', '41d')
self.assertAlmostEqual(y, -3600)
x, y = extract_target_x_y(target, '8h', '40d')
self.assertAlmostEqual(x, 0)
self.assertAlmostEqual(y, 0)
x, y = extract_target_x_y(dict(pangle=0, separation=1))
self.assertAlmostEqual(x, 0)
self.assertAlmostEqual(y, 1)
x, y = extract_target_x_y(dict(pangle=90, separation=1))
self.assertAlmostEqual(x, 1)
self.assertAlmostEqual(y, 0)
self.assertRaises(ValueError, extract_target_x_y, dict(pangle=0))
self.assertRaises(ValueError, extract_target_x_y, dict(ra='120d'))
self.assertRaises(ValueError, extract_target_x_y,
dict(ra='120d', dec='40d'))
def test_spectrum_generator(self):
target_example = {
'cstar': {
'magnitude': 5,
'ra': '120d',
'dec': '40d',
'distance': 10,
'sptype': 'F0III',
},
'stars': [
{
'magnitude': 5,
'ra': '120.0001d',
'dec': '40.0001d',
'sptype': 'G0III',
'isblackbody': True
},
{
'magnitude': 2,
'ra': '120.0001d',
'dec': '40.0001d',
'sptype': 'G0II',
'isblackbody': True
},
{
'magnitude': 2,
'ra': '120.0001d',
'dec': '40.0001d',
'sptype': 'G0',
'isblackbody': True
},
],
'planets': [
{
'radius': 2,
'pangle': 60,
'separation': 0.5,
'phase_angle': 90,
},
{
'radius': 2,
'pangle': 60,
'separation': 0.5,
'phase_angle': 90,
'model': 'bcc_planet',
'coe_c': 1,
'coe_m': 0,
}
]
}
sps = spectrum_generator(target_example)
num_ouput = len([sp for sp in sps if sp is not None])
num_input = len(target_example['stars']) + \
len(target_example['planets']) + 1
self.assertEqual(num_ouput, num_input)
if __name__ == '__main__':
unittest.main()