def test_scale(self):
wks = SimulatedDensityOfStates(PHONONFile=self._phonon_file,
Scale=10)
ref = SimulatedDensityOfStates(PHONONFile=self._phonon_file)
ref = Scale(ref, Factor=10)
self.assertEqual(CheckWorkspacesMatch(wks, ref), 'Success!')
def test_sum_partial_contributions_cross_section_scale(self):
spec_type = 'DOS'
tolerance = 1e-10
summed = DensityOfStates(File=self._file_name, SpectrumType=spec_type, Ions='H,C,O', SumContributions=True, ScaleByCrossSection='Incoherent')
total = DensityOfStates(File=self._file_name, SpectrumType=spec_type, ScaleByCrossSection='Incoherent')
self.assertEquals(CheckWorkspacesMatch(summed, total, tolerance), 'Success!')
def test_sum_partial_contributions(self):
spec_type = 'DOS'
tolerance = 1e-10
summed = DensityOfStates(File=self._file_name, SpectrumType=spec_type, Ions='H,C,O', SumContributions=True)
total = DensityOfStates(File=self._file_name, SpectrumType=spec_type)
self.assertEquals(CheckWorkspacesMatch(summed, total, tolerance), 'Success!')
def test_input_not_modified(self):
backup = CloneWorkspace(self._input_ws)
outputWorkspaceName = "output_ws"
alg_test = run_algorithm("ComputeCalibrationCoefVan", VanadiumWorkspace=self._input_ws,
EPPTable=self._table, OutputWorkspace=outputWorkspaceName)
self.assertTrue(alg_test.isExecuted())
self.assertEqual("Success!", CheckWorkspacesMatch(backup, self._input_ws))
DeleteWorkspace(backup)
def test_ion_table(self):
ws = DensityOfStates(File=self._file_name, SpectrumType='IonTable')
# Build the expected output
expected = CreateEmptyTableWorkspace()
expected.addColumn('str', 'Ion')
expected.addColumn('int', 'Count')
expected.addRow(['H', 4])
expected.addRow(['C', 8])
expected.addRow(['O', 8])
self.assertEquals(CheckWorkspacesMatch(ws, expected), 'Success!')
def test_scale(self):
ws = DensityOfStates(File=self._file_name, Scale=10)
ref = DensityOfStates(File=self._file_name)
ref = Scale(ref, Factor=10)
self.assertEqual(CheckWorkspacesMatch(ws, ref), 'Success!')