Fix testing when changing to plural the properties

tests/conftest.py

@@ -170,16 +170,16 @@ def generate_scf_electronic_band_gap_template(
     for i in range(1, n_scf_steps):
         value = 1 + sum([1 / (10**j) for j in range(1, i + 1)])
         scf_step = Outputs(
-            electronic_band_gap=[ElectronicBandGap(value=value * ureg.joule)]
+            electronic_band_gaps=[ElectronicBandGap(value=value * ureg.joule)]
         )
         scf_outputs.scf_steps.append(scf_step)
     # Add a SCF calculated PhysicalProperty
-    scf_outputs.electronic_band_gap.append(ElectronicBandGap(value=value * ureg.joule))
+    scf_outputs.electronic_band_gaps.append(ElectronicBandGap(value=value * ureg.joule))
     # and a `SelfConsistency` ref section
     scf_params = SelfConsistency(
         threshold_change=threshold_change, threshold_change_unit='joule'
     )
-    scf_outputs.electronic_band_gap[0].self_consistency_ref = scf_params
+    scf_outputs.electronic_band_gaps[0].self_consistency_ref = scf_params
     return scf_outputs
 
 

tests/test_outputs.py

@@ -44,9 +44,9 @@ def test_is_scf_converged(self, threshold_change: float, result: bool):
             threshold_change=threshold_change
         )
         is_scf_converged = scf_outputs.resolve_is_scf_converged(
-            property_name='electronic_band_gap',
+            property_name='electronic_band_gaps',
             i_property=0,
-            phys_property=scf_outputs.electronic_band_gap[0],
+            phys_property=scf_outputs.electronic_band_gaps[0],
             logger=logger,
         )
         assert is_scf_converged == result
@@ -60,18 +60,18 @@ def test_extract_spin_polarized_properties(self):
         # No spin-polarized band gap
         band_gap_non_spin_polarized = ElectronicBandGap(variables=[])
         band_gap_non_spin_polarized.value = 2.0 * ureg.joule
-        outputs.electronic_band_gap.append(band_gap_non_spin_polarized)
-        band_gaps = outputs.extract_spin_polarized_property('electronic_band_gap')
+        outputs.electronic_band_gaps.append(band_gap_non_spin_polarized)
+        band_gaps = outputs.extract_spin_polarized_property('electronic_band_gaps')
         assert band_gaps == []
 
         # Spin-polarized band gaps
         band_gap_spin_1 = ElectronicBandGap(variables=[], spin_channel=0)
         band_gap_spin_1.value = 1.0 * ureg.joule
-        outputs.electronic_band_gap.append(band_gap_spin_1)
+        outputs.electronic_band_gaps.append(band_gap_spin_1)
         band_gap_spin_2 = ElectronicBandGap(variables=[], spin_channel=1)
         band_gap_spin_2.value = 1.5 * ureg.joule
-        outputs.electronic_band_gap.append(band_gap_spin_2)
-        band_gaps = outputs.extract_spin_polarized_property('electronic_band_gap')
+        outputs.electronic_band_gaps.append(band_gap_spin_2)
+        band_gaps = outputs.extract_spin_polarized_property('electronic_band_gaps')
         assert len(band_gaps) == 2
         assert band_gaps[0].value.magnitude == 1.0
         assert band_gaps[1].value.magnitude == 1.5
@@ -89,4 +89,4 @@ def test_normalize(self, threshold_change: float, result: bool):
         )
 
         scf_outputs.normalize(EntryArchive(), logger)
-        assert scf_outputs.electronic_band_gap[0].is_scf_converged == result
+        assert scf_outputs.electronic_band_gaps[0].is_scf_converged == result