Fixing test_bandpass.py and test_l3.py

romanisim/tests/test_bandpass.py

@@ -231,6 +231,8 @@ def test_unevenly_sampled_wavelengths_flux_to_counts(sca=1):
     # Add spectral flux density units
     total_flux *= u.erg / (u.s * u.cm ** 2 * u.hertz)
     an_flux *= u.erg / (u.s * u.cm ** 2 * u.hertz)
+    import pdb
+    pdb.set_trace()
 
     for filter in IFILTLIST:
         # Define filter area
@@ -245,6 +247,9 @@ def test_unevenly_sampled_wavelengths_flux_to_counts(sca=1):
 
         # Computed flux
         computed_flux = bandpass.compute_count_rate(flux=total_flux, bandpass=filter, sca=sca, wavedist=total_wavedist)
+        print(filter)
+        print(an_counts_sum.value, computed_flux)
+        print(np.isclose(an_counts_sum.value, computed_flux, rtol=4.0e-2))
 
         # Test that proper results (within 4%) are returned for select bands.
         assert np.isclose(an_counts_sum.value, computed_flux, rtol=4.0e-2)

romanisim/tests/test_l3.py

@@ -310,7 +310,8 @@ def test_simulate_vs_cps():
     metadata['wcsinfo']['ra_ref'] = 270
     metadata['wcsinfo']['dec_ref'] = 66
     # Adding the detector information as the simulations now support all 18 detectors with their own throughput curves
-    sca = int(meta['instrument']['detector'][3:])
+    # Using the default detector from the default_parameters_dictionary as all sca arguments are set to it within l3.py
+    sca = int(romanisim.parameters.default_parameters_dictionary['instrument']['detector'][3:])
 
     # Set up blank image
     im = imdict['im'].copy()