def test_write_1_4_1(self):
"""
Tests for method `write`.
"""
self.maxDiff = None
title = "AlMgBulk5keV_version_1_4_1"
filepathReference = os.path.abspath(
os.path.join(self.testDataPath, "inputs", "%s.mdl" % (title)))
filepath = os.path.join(self.tempDataPath, "%s.par" % (title))
models = Models.Models()
models.version = Version.VERSION_1_4_1
models._modelList[Models.KEY_XRAY_CS_CHARACTERISTIC_MODEL].setModel(
MCXRayModel.XRayCSCharacteristicModel.TYPE_CASTANI1982)
models._modelList[Models.KEY_XRAY_CS_BREMSSTRAHLUNG_MODEL].setModel(
MCXRayModel.XRayCSBremsstrahlungModel.TYPE_DING)
models._modelList[Models.KEY_ATOM_CROSS_SECTION_MODEL].setModel(
MCXRayModel.AtomCrossSectionModel.TYPE_GAUVIN_DROUIN)
models._modelList[Models.KEY_ATOM_COLLISION_MODEL].setModel(
MCXRayModel.AtomCollisionModel.TYPE_RUTHERFORD)
models.write(filepath)
linesRef = open(filepathReference, 'r').readlines()
lines = open(filepath, 'r').readlines()
self.assertListEqual(linesRef, lines)
def test_write_1_1_1(self):
"""
Tests for method `write`.
"""
raise SkipTest
self.maxDiff = None
title = "AlMgBulk5keV_version_1_1_1"
filepathReference = os.path.abspath(
os.path.join(self.testDataPath, "inputs", "%s.mdl" % (title)))
filepath = os.path.join(self.tempDataPath, "%s.par" % (title))
models = Models.Models()
models._modelList[Models.KEY_XRAY_CS_BREMSSTRAHLUNG_MODEL].setModel(
MCXRayModel.XRayCSBremsstrahlungModel.TYPE_DING)
models.write(filepath)
linesRef = open(filepathReference, 'r').readlines()
lines = open(filepath, 'r').readlines()
self.assertListEqual(linesRef, lines)
self.fail("Test if the testcase is working.")
def test__createKeys(self):
"""
Tests for method `_createKeys`.
"""
keys = Models.Models()._createKeys()
self.assertEquals(self.numberModels, len(keys))
def test_read(self):
"""
Tests for method `read`.
"""
models = Models.Models()
for title in testUtilities.getSimulationTitles():
filepath = os.path.abspath(
os.path.join(self.testDataPath, "%s/%s.mdl" % (title, title)))
models.read(filepath)
modelList = models.getModelList()
self.assertEquals(self.numberModels, len(modelList))
self.assertEquals(
MCXRayModel.AtomMeanIonizationPotentialModel.TYPE_JOY_LUO,
modelList[Models.
KEY_ATOM_MEAN_IONIZATION_POTENTIAL_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomEnergyLossModel.TYPE_BETHE,
modelList[Models.KEY_ATOM_ENERGY_LOSS_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomScreeningModel.TYPE_HENOC_MAURICE,
modelList[Models.KEY_ATOM_SCREENING_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCrossSectionModel.TYPE_BROWNING,
modelList[Models.KEY_ATOM_CROSS_SECTION_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCrossSectionScreeningModel.TYPE_HENOC_MAURICE,
modelList[
Models.KEY_ATOM_CROSS_SECTION_SCREENING_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCollisionModel.TYPE_BROWNING,
modelList[Models.KEY_ATOM_COLLISION_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCollisionScreeningModel.TYPE_HENOC_MAURICE,
modelList[
Models.KEY_ATOM_COLLISION_SCREENING_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomElectronRangeModel.TYPE_KANAYA_OKAYAMA,
modelList[Models.KEY_ATOM_ELECTRON_RANGE_MODEL].getModel())
self.assertEquals(
MCXRayModel.XRayCSCharacteristicModel.TYPE_CASTANI1982,
modelList[Models.KEY_XRAY_CS_CHARACTERISTIC_MODEL].getModel())
self.assertEquals(
MCXRayModel.XRayCSBremsstrahlungModel.TYPE_DING,
modelList[Models.KEY_XRAY_CS_BREMSSTRAHLUNG_MODEL].getModel())
self.assertEquals(
MCXRayModel.SampleEnergyLossModel.TYPE_BETHE_JOY_LUO,
modelList[Models.KEY_SAMPLE_ENERGY_LOSS_MODEL].getModel())
self.assertEquals(
MCXRayModel.RegionEnergyLossModel.TYPE_BETHE_JOY_LUO,
modelList[Models.KEY_REGION_ENERGY_LOSS_MODEL].getModel())
self.assertEquals(
MCXRayModel.MassAbsorptionCoefficientModel.TYPE_CHANTLER2005,
modelList[
Models.KEY_MASS_ABSORPTION_COEFFICIENT_MODEL].getModel())
def test_read_1_2_1(self):
"""
Tests for method `read`.
"""
models = Models.Models()
title = "AlMgBulk5keV_version_1_2_1"
filepath = os.path.abspath(
os.path.join(self.testDataPath, "inputs", "%s.mdl" % (title)))
models.read(filepath)
self.assertEquals(Version.VERSION_1_2_1.major, models.version.major)
self.assertEquals(Version.VERSION_1_2_1.minor, models.version.minor)
self.assertEquals(Version.VERSION_1_2_1.revision,
models.version.revision)
self.assertEquals(Version.VERSION_1_2_1, models.version)
modelList = models.getModelList()
self.assertEquals(self.numberModels, len(modelList))
self.assertEquals(
MCXRayModel.AtomMeanIonizationPotentialModel.TYPE_JOY_LUO,
modelList[
Models.KEY_ATOM_MEAN_IONIZATION_POTENTIAL_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomEnergyLossModel.TYPE_BETHE,
modelList[Models.KEY_ATOM_ENERGY_LOSS_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomScreeningModel.TYPE_HENOC_MAURICE,
modelList[Models.KEY_ATOM_SCREENING_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCrossSectionModel.TYPE_GAUVIN_DROUIN,
modelList[Models.KEY_ATOM_CROSS_SECTION_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCrossSectionScreeningModel.TYPE_HENOC_MAURICE,
modelList[
Models.KEY_ATOM_CROSS_SECTION_SCREENING_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCollisionModel.TYPE_RUTHERFORD,
modelList[Models.KEY_ATOM_COLLISION_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCollisionScreeningModel.TYPE_HENOC_MAURICE,
modelList[Models.KEY_ATOM_COLLISION_SCREENING_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomElectronRangeModel.TYPE_KANAYA_OKAYAMA,
modelList[Models.KEY_ATOM_ELECTRON_RANGE_MODEL].getModel())
self.assertEquals(
MCXRayModel.XRayCSCharacteristicModel.TYPE_CASTANI1982,
modelList[Models.KEY_XRAY_CS_CHARACTERISTIC_MODEL].getModel())
self.assertEquals(
MCXRayModel.XRayCSBremsstrahlungModel.TYPE_DING,
modelList[Models.KEY_XRAY_CS_BREMSSTRAHLUNG_MODEL].getModel())
self.assertEquals(
MCXRayModel.SampleEnergyLossModel.TYPE_BETHE_JOY_LUO,
modelList[Models.KEY_SAMPLE_ENERGY_LOSS_MODEL].getModel())
def testDefaultModels(self):
"""
Tests for method `read`.
"""
models = Models.Models()
modelList = models.getModelList()
self.assertEquals(self.numberModels, len(modelList))
self.assertEquals(
MCXRayModel.AtomMeanIonizationPotentialModel.TYPE_JOY_LUO,
modelList[
Models.KEY_ATOM_MEAN_IONIZATION_POTENTIAL_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomEnergyLossModel.TYPE_BETHE,
modelList[Models.KEY_ATOM_ENERGY_LOSS_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomScreeningModel.TYPE_HENOC_MAURICE,
modelList[Models.KEY_ATOM_SCREENING_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCrossSectionModel.TYPE_BROWNING,
modelList[Models.KEY_ATOM_CROSS_SECTION_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCrossSectionScreeningModel.TYPE_HENOC_MAURICE,
modelList[
Models.KEY_ATOM_CROSS_SECTION_SCREENING_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCollisionModel.TYPE_BROWNING,
modelList[Models.KEY_ATOM_COLLISION_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomCollisionScreeningModel.TYPE_HENOC_MAURICE,
modelList[Models.KEY_ATOM_COLLISION_SCREENING_MODEL].getModel())
self.assertEquals(
MCXRayModel.AtomElectronRangeModel.TYPE_KANAYA_OKAYAMA,
modelList[Models.KEY_ATOM_ELECTRON_RANGE_MODEL].getModel())
self.assertEquals(
MCXRayModel.XRayCSCharacteristicModel.TYPE_BOTE2009,
modelList[Models.KEY_XRAY_CS_CHARACTERISTIC_MODEL].getModel())
self.assertEquals(
MCXRayModel.XRayCSBremsstrahlungModel.TYPE_KIRKPATRICK_WIEDMAN,
modelList[Models.KEY_XRAY_CS_BREMSSTRAHLUNG_MODEL].getModel())
self.assertEquals(
MCXRayModel.SampleEnergyLossModel.TYPE_BETHE_JOY_LUO,
modelList[Models.KEY_SAMPLE_ENERGY_LOSS_MODEL].getModel())
def test_write(self):
"""
Tests for method `write`.
"""
raise SkipTest
self.maxDiff = None
for title in testUtilities.getSimulationTitles():
filepathReference = os.path.abspath(
os.path.join(self.testDataPath, "%s/%s.mdl" % (title, title)))
filepath = os.path.join(self.tempDataPath, "%s.mdl" % (title))
models = Models.Models()
models._modelList[
Models.KEY_XRAY_CS_BREMSSTRAHLUNG_MODEL].setModel(
MCXRayModel.XRayCSBremsstrahlungModel.TYPE_DING)
models.write(filepath)
linesRef = open(filepathReference, 'r').readlines()
lines = open(filepath, 'r').readlines()
self.assertListEqual(linesRef, lines)