-## Copyright (C) 2014-2017 CEA/DEN, EDF R&D
-##
-## This library is free software; you can redistribute it and/or
-## modify it under the terms of the GNU Lesser General Public
-## License as published by the Free Software Foundation; either
-## version 2.1 of the License, or (at your option) any later version.
-##
-## This library is distributed in the hope that it will be useful,
-## but WITHOUT ANY WARRANTY; without even the implied warranty of
-## MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
-## Lesser General Public License for more details.
-##
-## You should have received a copy of the GNU Lesser General Public
-## License along with this library; if not, write to the Free Software
-## Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
-##
-## See http:##www.salome-platform.org/ or
-## email : webmaster.salome@opencascade.com<mailto:webmaster.salome@opencascade.com>
-##
+# Copyright (C) 2014-2022 CEA/DEN, EDF R&D
+#
+# This library is free software; you can redistribute it and/or
+# modify it under the terms of the GNU Lesser General Public
+# License as published by the Free Software Foundation; either
+# version 2.1 of the License, or (at your option) any later version.
+#
+# This library is distributed in the hope that it will be useful,
+# but WITHOUT ANY WARRANTY; without even the implied warranty of
+# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
+# Lesser General Public License for more details.
+#
+# You should have received a copy of the GNU Lesser General Public
+# License along with this library; if not, write to the Free Software
+# Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
+#
+# See http://www.salome-platform.org/ or email : webmaster.salome@opencascade.com
+#
from GeomAlgoAPI import *
from GeomAPI import *
from GeomDataAPI import *
-from ModelAPI import ModelAPI_Feature
+from ModelAPI import ModelAPI_Feature, ModelAPI_Session
+from ModelHighAPI import *
import math
from salome.shaper.model import sketcher
"""
if "testNbResults" in theTestsList or len(theTestsList) == 0:
aNbResults = len(theFeature.results())
- print "model.testNbResults({}, {})".format(theFeatureName, aNbResults)
+ print("model.testNbResults({}, {})".format(theFeatureName, aNbResults))
if "testNbSubResults" in theTestsList or len(theTestsList) == 0:
aNbResults = len(theFeature.results())
aNbSubResults = []
for anIndex in range(0, aNbResults):
aNbSubResults.append(theFeature.results()[anIndex].numberOfSubs())
- print "model.testNbSubResults({}, {})".format(theFeatureName, aNbSubResults)
+ print("model.testNbSubResults({}, {})".format(theFeatureName, aNbSubResults))
if "testNbSubShapes" in theTestsList or len(theTestsList) == 0:
aNbResults = len(theFeature.results())
aShapeExplorer = GeomAPI_ShapeExplorer(aShape, aShapeType)
while aShapeExplorer.more():
aNbResultSubShapes += 1
- aShapeExplorer.next();
+ aShapeExplorer.next()
aNbSubShapes.append(aNbResultSubShapes)
- print "model.testNbSubShapes({}, {}, {})".format(theFeatureName, aShapeTypes[aShapeType], aNbSubShapes)
+ print("model.testNbSubShapes({}, {}, {})".format(theFeatureName, aShapeTypes[aShapeType], aNbSubShapes))
if "testResultsVolumes" in theTestsList or len(theTestsList) == 0:
aNbResults = len(theFeature.results())
aResultsVolumes = []
for anIndex in range(0, aNbResults):
aResultsVolumes.append(GeomAlgoAPI_ShapeTools_volume(theFeature.results()[anIndex].resultSubShapePair()[0].shape()))
- print "model.testResultsVolumes({}, [{}])".format(theFeatureName, ", ".join("{:0.27f}".format(i) for i in aResultsVolumes))
+ print("model.testResultsVolumes({}, [{}])".format(theFeatureName, ", ".join("{:0.27f}".format(i) for i in aResultsVolumes)))
+
+ if "testResultsAreas" in theTestsList or len(theTestsList) == 0:
+ aNbResults = len(theFeature.results())
+ aResultsAreas = []
+ for anIndex in range(0, aNbResults):
+ aResultsAreas.append(GeomAlgoAPI_ShapeTools_area(theFeature.results()[anIndex].resultSubShapePair()[0].shape()))
+ print("model.testResultsAreas({}, [{}])".format(theFeatureName, ", ".join("{:0.27f}".format(i) for i in aResultsAreas)))
def testNbResults(theFeature, theExpectedNbResults):
aShapeExplorer = GeomAPI_ShapeExplorer(aShape, theShapeType)
while aShapeExplorer.more():
aNbResultSubShapes += 1
- aShapeExplorer.next();
+ aShapeExplorer.next()
assert (aNbResultSubShapes == anExpectedNbSubShapes), "Number of sub-shapes of type {} for result[{}]: {}. Expected: {}.".format(aShapeTypes[theShapeType], anIndex, aNbResultSubShapes, anExpectedNbSubShapes)
aResultVolumeStr = "{:0.27f}".format(aResultVolume).lstrip("0").lstrip(".").lstrip("0")
anExpectedResultVolume = theExpectedResultsVolumes[anIndex]
anExpectedResultVolumeStr = "{:0.27f}".format(anExpectedResultVolume).lstrip("0").lstrip(".").lstrip("0")
- assert math.fabs(aResultVolume - anExpectedResultVolume) < aTolerance * anExpectedResultVolume, "Volume of result[{}]: {:0.27f}. Expected: {:0.27f}. The first {} significant digits not equal.".format(anIndex, aResultVolume, anExpectedResultVolume, theNbSignificantDigits)
+ assert math.fabs(aResultVolume - anExpectedResultVolume) <= aTolerance * math.fabs(anExpectedResultVolume), "Volume of result[{}]: {:0.27f}. Expected: {:0.27f}. The first {} significant digits not equal.".format(anIndex, aResultVolume, anExpectedResultVolume, theNbSignificantDigits)
+
+
+def testResultsAreas(theFeature, theExpectedResultsVolumes, theNbSignificantDigits = 7):
+ """ Tests results areas.
+ :param theFeature: feature to test.
+ :param theExpectedResultsAreas: list of results areas. Size of list should be equal to len(theFeature.results()).
+ """
+ aTolerance = 10**(-theNbSignificantDigits)
+ aNbResults = len(theFeature.results())
+ aListSize = len(theExpectedResultsVolumes)
+ assert (aNbResults == aListSize), "Number of results: {} not equal to list size: {}.".format(aNbResults, aListSize)
+ for anIndex in range(0, aNbResults):
+ aResultVolume = GeomAlgoAPI_ShapeTools_area(theFeature.results()[anIndex].resultSubShapePair()[0].shape())
+ aResultVolumeStr = "{:0.27f}".format(aResultVolume).lstrip("0").lstrip(".").lstrip("0")
+ anExpectedResultVolume = theExpectedResultsVolumes[anIndex]
+ anExpectedResultVolumeStr = "{:0.27f}".format(anExpectedResultVolume).lstrip("0").lstrip(".").lstrip("0")
+ assert math.fabs(aResultVolume - anExpectedResultVolume) <= aTolerance * math.fabs(anExpectedResultVolume), "Area of result[{}]: {:0.27f}. Expected: {:0.27f}. The first {} significant digits not equal.".format(anIndex, aResultVolume, anExpectedResultVolume, theNbSignificantDigits)
+
def testHaveNamingFaces(theFeature, theModel, thePartDoc) :
""" Tests if all faces of result have a name
assert(shape.isEdge())
assert(name != ""), "String empty"
+def lowerLevelSubResults(theResult, theList):
+ """ Collects in a list all lover level sub-results (without children).
+ Auxiliary method for context correct definition.
+ """
+ nbSubs = theResult.numberOfSubs()
+ if nbSubs == 0:
+ theList.append(theResult)
+ else:
+ for sub in range(0, nbSubs):
+ lowerLevelSubResults(theResult.subResult(sub), theList)
+
def testHaveNamingByType(theFeature, theModel, thePartDoc, theSubshapeType) :
""" Tests if all sub-shapes of result have a unique name
:param theFeature: feature to test.
if not theFeature.results():
return
aFirstRes = theFeature.results()[0]
- # Get number of sub-results
- hasSubs = True
- nbSubs = aFirstRes.numberOfSubs()
- if nbSubs == 0:
- # no sub-results => treat current result as a sub
- hasSubs = False
- nbSubs = 1
+ aResList = []
+ lowerLevelSubResults(aFirstRes, aResList)
selectionList = []
shapesList = [] # to append only unique shapes (not isSame)
- for sub in range(0, nbSubs):
+ for aR in aResList:
# Get feature result/sub-result
- if hasSubs:
- aResult = aFirstRes.subResult(sub).resultSubShapePair()[0]
- else:
- aResult = aFirstRes.resultSubShapePair()[0]
+ aResult = aR.resultSubShapePair()[0]
# Get result/sub-result shape
shape = aResult.shape()
# Create shape explorer with desired shape type
""" Tests if all vertices/edges/faces of result have a unique name
:param theFeature: feature to test.
"""
+ assert(len(theFeature.results()) > 0)
testHaveNamingByType(theFeature, theModel, thePartDoc, GeomAPI_Shape.VERTEX)
testHaveNamingByType(theFeature, theModel, thePartDoc, GeomAPI_Shape.EDGE)
testHaveNamingByType(theFeature, theModel, thePartDoc, GeomAPI_Shape.FACE)
theModel.testNbSubShapes(theFeature, GeomAPI_Shape.EDGE, NbEdge)
theModel.testNbSubShapes(theFeature, GeomAPI_Shape.VERTEX, NbVertex)
-def checkSketch(theSketch, theDOF = -1):
- """ Tests the sketch is valid and DoF is equal to the given
- """
- assert(theSketch.feature().error() == ""), "Sketch failed: {}".format(theSketch.feature().error())
- assert(theSketch.solverError().value() == ""), "Sketch solver failed: {}".format(theSketch.solverError().value())
- if theDOF != -1:
- aDOF = sketcher.tools.dof(theSketch)
- assert(aDOF == theDOF), "Sketch DoF {} is wrong. Expected {}".format(aDOF, theDOF)
-
def checkGroup(theGroup, theShapeType):
""" Check that all selected shapes in group have correct shape type and unique name
"""
assert(name != ""), "String empty"
presented_names.add(name)
assert(len(presented_names) == groupSelectionList.size()), "Some names are not unique"
+
+def createSubShape(thePartDoc, theModel, theSelection):
+ """ Create feature according to the type of the given subshape
+ """
+ if theSelection.shapeType() == "VERTEX":
+ return theModel.addVertex(thePartDoc, [theSelection])
+ elif theSelection.shapeType() == "EDGE":
+ return theModel.addEdge(thePartDoc, [theSelection])
+ elif theSelection.shapeType() == "FACE":
+ return theModel.addFace(thePartDoc, [theSelection])
+
+def checkFilter(thePartDoc, theModel, theFilter, theShapesList):
+ """ Check filter's work on specified shape.
+ Shapes given as a dictionary of selection and expected result.
+ """
+ aFiltersFactory = ModelAPI_Session.get().filters()
+ for sel, res in theShapesList.items():
+ needUndo = False
+ shapeName = ""
+ shapeType = "UNKNOWN"
+ if sel.variantType() == ModelHighAPI_Selection.VT_ResultSubShapePair:
+ parent = sel.resultSubShapePair()[0]
+ shape = sel.resultSubShapePair()[1]
+ if shape.isNull():
+ shape = sel.resultSubShapePair()[0].shape()
+ shapeName = sel.name()
+ shapeType = shape.shapeTypeStr()
+ else:
+ needUndo = True
+ theModel.begin()
+ subShapeFeature = createSubShape(thePartDoc, theModel, sel)
+ theModel.end()
+ parent = subShapeFeature.results()[0].resultSubShapePair()[0]
+ shape = subShapeFeature.results()[0].resultSubShapePair()[0].shape()
+ shapeType = sel.typeSubShapeNamePair()[0]
+ shapeName = sel.typeSubShapeNamePair()[1]
+ assert aFiltersFactory.isValid(theFilter.feature(), parent, shape) == res, "Filter result for {} \"{}\" incorrect. Expected {}.".format(shapeType, shapeName, res)
+ if needUndo:
+ theModel.undo()
