# -*- coding: iso-8859-1 -*-
-# Copyright (C) 2007-2015 CEA/DEN, EDF R&D
+# Copyright (C) 2007-2016 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
d=DataArrayDouble.New(6,2)
d[:,0]=3.
-d[:,1]=range(6)
+d[:, 1] = list(range(6))
d[:,1]*=math.pi/3.
d=d.fromPolarToCart()
d.setInfoOnComponents(["X [m]","Y [m]"])
-print d.getValues()
-print d
-print d.magnitude().isUniform(3.,1e-12)
+print(d.getValues())
+print(d)
+print(d.magnitude().isUniform(3.,1e-12))
#
radius=3.
translationToPerform=[[0.,0.],[3./2.*radius,-radius*math.sqrt(3.)/2],[3./2.*radius,radius*math.sqrt(3.)/2],[0.,radius*math.sqrt(3.)],[-3./2.*radius,radius*math.sqrt(3.)/2],[-3./2.*radius,-radius*math.sqrt(3.)/2],[0.,-radius*math.sqrt(3.)]]
oldNbOfTuples=d2.getNumberOfTuples()
c,cI=d2.findCommonTuples(1e-12)
tmp=c[cI[0]:cI[0+1]]
-print tmp
+print(tmp)
a=cI.deltaShiftIndex()
b=a-1
myNewNbOfTuples=oldNbOfTuples-sum(b.getValues())
-o2n,newNbOfTuples=DataArrayInt.BuildOld2NewArrayFromSurjectiveFormat2(oldNbOfTuples,c,cI)
-print "Ai je trouve le bon resultat ? %s"%(str(myNewNbOfTuples==newNbOfTuples)) ; assert myNewNbOfTuples==newNbOfTuples
+o2n,newNbOfTuples=DataArrayInt.ConvertIndexArrayToO2N(oldNbOfTuples,c,cI)
+print("Ai je trouve le bon resultat ? %s"%(str(myNewNbOfTuples==newNbOfTuples))) ; assert myNewNbOfTuples==newNbOfTuples
#
d3=d2.renumberAndReduce(o2n,newNbOfTuples)
n2o=o2n.invertArrayO2N2N2O(newNbOfTuples)
d3_bis=d2[n2o]
-print "Ai je trouve le bon resultat (2) ? %s"%(str(d3.isEqual(d3_bis,1e-12))) ; assert d3.isEqual(d3_bis,1e-12)
+print("Ai je trouve le bon resultat (2) ? %s"%(str(d3.isEqual(d3_bis,1e-12)))) ; assert d3.isEqual(d3_bis,1e-12)
#
d3+=[3.3,4.4]
# d3 contains coordinates
m=MEDCouplingUMesh.New("My7hexagons",2)
m.setCoords(d3)
m.allocateCells(7)
-for i in xrange(7):
+for i in range(7):
m.insertNextCell(NORM_POLYGON,o2n[6*i:6*(i+1)].getValues())
pass
m.finishInsertingCells()
-m.checkCoherency()
+m.checkConsistencyLight()
#
m.writeVTK("My7hexagons.vtu")
mesh3D.setCoords(myCoords);
mesh3D.orientCorrectlyPolyhedrons()
mesh3D.sortCellsInMEDFileFrmt()
-mesh3D.checkCoherency()
-renum=DataArrayInt.New(60) ; renum[:15]=range(15,30) ; renum[15:30]=range(15) ; renum[30:45]=range(45,60) ; renum[45:]=range(30,45)
+mesh3D.checkConsistencyLight()
+renum = DataArrayInt.New(60) ; renum[:15] = list(range(15, 30)) ; renum[15:30] = list(range(15)) ; renum[30:45] = list(range(45, 60)) ; renum[45:] = list(range(30, 45))
mesh3D.renumberNodes(renum,60)
#
mesh3D.getCoords()[:]*=100.
mesh3D.getCoords().setInfoOnComponents(["X [cm]","Y [cm]","Z [cm]"])
#
zLev=mesh3D.getCoords()[:,2]
-zLev=zLev.getDifferentValues(1e-12)
+zLev = zLev.getDifferentValues(1e-12)
zLev.sort()
#
tmp,cellIdsSol1=mesh3D.buildSlice3D([0.,0.,(zLev[1]+zLev[2])/2],[0.,0.,1.],1e-12)
-bary=mesh3D.getBarycenterAndOwner()
+bary=mesh3D.computeCellCenterOfMass()
baryZ=bary[:,2]
-cellIdsSol2=baryZ.getIdsInRange(zLev[1],zLev[2])
+cellIdsSol2=baryZ.findIdsInRange(zLev[1],zLev[2])
nodeIds=mesh3D.findNodesOnPlane([0.,0.,zLev[0]],[0.,0.,1.],1e-10)
mesh2D=mesh3D.buildFacePartOfMySelfNode(nodeIds,True)
-extMesh=MEDCouplingExtrudedMesh.New(mesh3D,mesh2D,0)
+extMesh=MEDCouplingMappedExtrudedMesh.New(mesh3D,mesh2D,0)
cellIdsSol3=extMesh.getMesh3DIds()[mesh2D.getNumberOfCells():2*mesh2D.getNumberOfCells()]
-for i in xrange(3):
- exec("print cellIdsSol%s.getValues()"%(i+1))
+for i in range(3):
+ exec("print( cellIdsSol%s.getValues())"%(i+1))
#
mesh3DPart=mesh3D[cellIdsSol2] # equivalent to mesh3DPart=mesh3D.buildPartOfMySelf(cellIdsSol2,True)
mesh3DPart.zipCoords()
-print mesh3DPart.checkConsecutiveCellTypesAndOrder([NORM_HEXA8,NORM_POLYHED]) ; assert mesh3DPart.checkConsecutiveCellTypesAndOrder([NORM_HEXA8,NORM_POLYHED])
-print mesh3DPart.checkConsecutiveCellTypes() ; assert mesh3DPart.checkConsecutiveCellTypes()
+print(mesh3DPart.checkConsecutiveCellTypesAndOrder([NORM_HEXA8,NORM_POLYHED])) ; assert mesh3DPart.checkConsecutiveCellTypesAndOrder([NORM_HEXA8,NORM_POLYHED])
+print(mesh3DPart.checkConsecutiveCellTypes()) ; assert mesh3DPart.checkConsecutiveCellTypes()
#print mesh3DPart.advancedRepr()
#
baryXY=bary[:,[0,1]]
baryXY-=[250.,150.]
magn=baryXY.magnitude()
-cellIds2Sol1=magn.getIdsInRange(0.,1e-12)
+cellIds2Sol1=magn.findIdsInRange(0.,1e-12)
#
-bary2=mesh2D.getBarycenterAndOwner()[:,[0,1]]
+bary2=mesh2D.computeCellCenterOfMass()[:,[0,1]]
bary2-=[250.,150.]
magn=bary2.magnitude()
-ids=magn.getIdsInRange(0.,1e-12)
+ids=magn.findIdsInRange(0.,1e-12)
idStart=int(ids) # ids is assumed to contain only one value, if not an exception is thrown
-cellIds2Sol2=extMesh.getMesh3DIds()[range(idStart,mesh3D.getNumberOfCells(),mesh2D.getNumberOfCells())]
+cellIds2Sol2 = extMesh.getMesh3DIds()[list(range(idStart, mesh3D.getNumberOfCells(), mesh2D.getNumberOfCells()))]
#
mesh3DSlice2=mesh3D[cellIds2Sol1]
mesh3DSlice2.zipCoords()
#
-mesh3DSlice2bis=mesh3DSlice2.deepCpy()
+mesh3DSlice2bis=mesh3DSlice2.deepCopy()
mesh3DSlice2bis.translate([0.,1000.,0.])
mesh3DSlice2All=MEDCouplingUMesh.MergeUMeshes([mesh3DSlice2,mesh3DSlice2bis])
mesh3DSlice2All.writeVTK("mesh3DSlice2All.vtu")
#
mesh3DSurf,desc,descIndx,revDesc,revDescIndx=mesh3D.buildDescendingConnectivity()
numberOf3DCellSharing=revDescIndx.deltaShiftIndex()
-cellIds=numberOf3DCellSharing.getIdsNotEqual(1)
+cellIds=numberOf3DCellSharing.findIdsNotEqual(1)
mesh3DSurfInside=mesh3DSurf[cellIds]
mesh3DSurfInside.writeVTK("mesh3DSurfInside.vtu")
f2.setMesh(mesh)
f2.setName("MyField2")
f2.fillFromAnalytic(1,"(x-5.)*(x-5.)+(y-5.)*(y-5.)+(z-5.)*(z-5.)")
-print "f and f2 are equal : %s"%(f.isEqualWithoutConsideringStr(f2,1e-13,1e-12)) ; assert f.isEqualWithoutConsideringStr(f2,1e-13,1e-12)
+print("f and f2 are equal : %s"%(f.isEqualWithoutConsideringStr(f2,1e-13,1e-12))) ; assert f.isEqualWithoutConsideringStr(f2,1e-13,1e-12)
#
-ids1=f.getArray().getIdsInRange(0.,5.)
+ids1=f.getArray().findIdsInRange(0.,5.)
fPart1=f.buildSubPart(ids1)
-ids2=f.getArray().getIdsInRange(50.,1.e300)
+ids2=f.getArray().findIdsInRange(50.,1.e300)
fPart2=f.buildSubPart(ids2)
#Renumbering cells to follow MED file
-fPart1Cpy=fPart1.deepCpy()
+fPart1Cpy=fPart1.deepCopy()
o2n=fPart1Cpy.getMesh().sortCellsInMEDFileFrmt()
fPart1Cpy.getArray().renumberInPlace(o2n)
#Check that fPart1Cpy and fPart1 are the same
fPart1Cpy.substractInPlaceDM(fPart1,12,1e-12)
fPart1Cpy.getArray().abs()
-print "Fields are the same ? %s"%(fPart1Cpy.getArray().accumulate()[0]<1e-12) ; assert fPart1Cpy.getArray().accumulate()[0]<1e-12
+print("Fields are the same ? %s"%(fPart1Cpy.getArray().accumulate()[0]<1e-12)) ; assert fPart1Cpy.getArray().accumulate()[0]<1e-12
#
fPart12=MEDCouplingFieldDouble.MergeFields([fPart1,fPart2])
# evaluation on points
-bary=fPart12.getMesh().getBarycenterAndOwner()
+bary=fPart12.getMesh().computeCellCenterOfMass()
arr1=fPart12.getValueOnMulti(bary)
arr2=f.getValueOnMulti(bary)
delta=arr1-arr2
delta.abs()
-print "Check OK : %s"%(delta.accumulate()[0]<1e-12) ; assert delta.accumulate()[0]<1e-12
+print("Check OK : %s"%(delta.accumulate()[0]<1e-12)) ; assert delta.accumulate()[0]<1e-12
#
-print abs(fPart12.integral(0,True)-fPart12.getArray().accumulate()[0])<1e-10 ; assert abs(fPart12.integral(0,True)-fPart12.getArray().accumulate()[0])<1e-10
+print(abs(fPart12.integral(0,True)-fPart12.getArray().accumulate()[0])<1e-10) ; assert abs(fPart12.integral(0,True)-fPart12.getArray().accumulate()[0])<1e-10
fPart12.getMesh().scale([0.,0.,0.],1.2)
-print abs(fPart12.integral(0,True)-fPart12.getArray().accumulate()[0]*1.2*1.2*1.2)<1e-8 ; assert abs(fPart12.integral(0,True)-fPart12.getArray().accumulate()[0]*1.2*1.2*1.2)<1e-8
+print(abs(fPart12.integral(0,True)-fPart12.getArray().accumulate()[0]*1.2*1.2*1.2)<1e-8) ; assert abs(fPart12.integral(0,True)-fPart12.getArray().accumulate()[0]*1.2*1.2*1.2)<1e-8
# Explosion of field
fVec=mesh.fillFromAnalytic(ON_CELLS,3,"(x-5.)*IVec+(y-5.)*JVec+(z-5.)*KVec")
fVecPart1=fVec.buildSubPart(ids1)
myCoords.setInfoOnComponents(["X [km]","YY [mm]"])
targetMesh.setCoords(myCoords);
#
-MEDLoader.WriteUMesh("TargetMesh.med",targetMesh,True)
+WriteUMesh("TargetMesh.med",targetMesh,True)
#
-meshRead=MEDLoader.ReadUMeshFromFile("TargetMesh.med",targetMesh.getName(),0)
-print "Is the mesh read in file equals targetMesh ? %s"%(meshRead.isEqual(targetMesh,1e-12)) ; assert meshRead.isEqual(targetMesh,1e-12)
+meshRead=ReadUMeshFromFile("TargetMesh.med",targetMesh.getName(),0)
+print("Is the mesh read in file equals targetMesh ? %s"%(meshRead.isEqual(targetMesh,1e-12))) ; assert meshRead.isEqual(targetMesh,1e-12)
#
f=MEDCouplingFieldDouble.New(ON_CELLS,ONE_TIME)
f.setTime(5.6,7,8)
-f.setArray(targetMesh.getBarycenterAndOwner())
+f.setArray(targetMesh.computeCellCenterOfMass())
f.setMesh(targetMesh)
f.setName("AFieldName")
-MEDLoader.WriteField("MyFirstField.med",f,True)
+WriteField("MyFirstField.med",f,True)
#
-f2=MEDLoader.ReadFieldCell("MyFirstField.med",f.getMesh().getName(),0,f.getName(),7,8)
-print "Is the field read in file equals f ? %s"%(f2.isEqual(f,1e-12,1e-12)) ; assert f2.isEqual(f,1e-12,1e-12)
+f2=ReadFieldCell("MyFirstField.med",f.getMesh().getName(),0,f.getName(),7,8)
+print("Is the field read in file equals f ? %s"%(f2.isEqual(f,1e-12,1e-12))) ; assert f2.isEqual(f,1e-12,1e-12)
#
-MEDLoader.WriteUMesh("MySecondField.med",f.getMesh(),True)
-MEDLoader.WriteFieldUsingAlreadyWrittenMesh("MySecondField.med",f)
+WriteUMesh("MySecondField.med",f.getMesh(),True)
+WriteFieldUsingAlreadyWrittenMesh("MySecondField.med",f)
#
f2=f.clone(True)
f2.getArray()[:]*=2.0
f2.setTime(7.8,9,10)
-MEDLoader.WriteFieldUsingAlreadyWrittenMesh("MySecondField.med",f2)
+WriteFieldUsingAlreadyWrittenMesh("MySecondField.med",f2)
#
-f3=MEDLoader.ReadFieldCell("MySecondField.med",f.getMesh().getName(),0,f.getName(),7,8)
-print "Is the field read in file equals f ? %s"%(f.isEqual(f3,1e-12,1e-12)) ; assert f.isEqual(f3,1e-12,1e-12)
-f4=MEDLoader.ReadFieldCell("MySecondField.med",f.getMesh().getName(),0,f.getName(),9,10)
-print "Is the field read in file equals f ? %s"%(f2.isEqual(f4,1e-12,1e-12)) ; assert f2.isEqual(f4,1e-12,1e-12)
+f3=ReadFieldCell("MySecondField.med",f.getMesh().getName(),0,f.getName(),7,8)
+print("Is the field read in file equals f ? %s"%(f.isEqual(f3,1e-12,1e-12))) ; assert f.isEqual(f3,1e-12,1e-12)
+f4=ReadFieldCell("MySecondField.med",f.getMesh().getName(),0,f.getName(),9,10)
+print("Is the field read in file equals f ? %s"%(f2.isEqual(f4,1e-12,1e-12))) ; assert f2.isEqual(f4,1e-12,1e-12)
#####
meshMEDFileRead=MEDFileMesh.New("TargetMesh2.med")
meshRead0=meshMEDFileRead.getMeshAtLevel(0)
meshRead1=meshMEDFileRead.getMeshAtLevel(-1)
-print "Is the mesh at level 0 read in file equals targetMesh ? %s"%(meshRead0.isEqual(targetMesh,1e-12)) ; assert meshRead0.isEqual(targetMesh,1e-12)
-print "Is the mesh at level -1 read in file equals targetMesh ? %s"%(meshRead1.isEqual(targetMesh1,1e-12)) ; assert meshRead1.isEqual(targetMesh1,1e-12)
+print("Is the mesh at level 0 read in file equals targetMesh ? %s"%(meshRead0.isEqual(targetMesh,1e-12))) ; assert meshRead0.isEqual(targetMesh,1e-12)
+print("Is the mesh at level -1 read in file equals targetMesh ? %s"%(meshRead1.isEqual(targetMesh1,1e-12))) ; assert meshRead1.isEqual(targetMesh1,1e-12)
#
-print meshMEDFileRead.getGrpNonEmptyLevels("grp0_Lev0")
+print(meshMEDFileRead.getGrpNonEmptyLevels("grp0_Lev0"))
grp0_0_read=meshMEDFileRead.getGroupArr(0,"grp0_Lev0")
-print "Is group \"grp0_Lev0\" are the same ? %s"%(grp0_0_read.isEqual(grp0_0)) ; assert grp0_0_read.isEqual(grp0_0)
+print("Is group \"grp0_Lev0\" are the same ? %s"%(grp0_0_read.isEqual(grp0_0))) ; assert grp0_0_read.isEqual(grp0_0)
#
# Fields
#
f=MEDCouplingFieldDouble.New(ON_CELLS,ONE_TIME)
f.setTime(5.6,7,8)
-f.setArray(targetMesh.getBarycenterAndOwner())
+f.setArray(targetMesh.computeCellCenterOfMass())
f.setMesh(targetMesh)
f.setName("AFieldName")
#
fMEDFileRead=MEDFileField1TS.New("TargetMesh2.med",f.getName(),7,8)
fRead1=fMEDFileRead.getFieldOnMeshAtLevel(ON_CELLS,0,meshMEDFileRead) # fastest method. No read in file.
fRead2=fMEDFileRead.getFieldAtLevel(ON_CELLS,0) # basic method like, mesh is reread in file...
-print "Does the field f remains the same using fast method ? %s"%(fRead1.isEqual(f,1e-12,1e-12)) ; assert fRead1.isEqual(f,1e-12,1e-12)
-print "Does the field f remains the same using slow method ? %s"%(fRead2.isEqual(f,1e-12,1e-12)) ; assert fRead2.isEqual(f,1e-12,1e-12)
+print("Does the field f remains the same using fast method ? %s"%(fRead1.isEqual(f,1e-12,1e-12))) ; assert fRead1.isEqual(f,1e-12,1e-12)
+print("Does the field f remains the same using slow method ? %s"%(fRead2.isEqual(f,1e-12,1e-12))) ; assert fRead2.isEqual(f,1e-12,1e-12)
#
# Writing and Reading fields on profile using MEDLoader advanced API
#
#
fMEDFileRead2=MEDFileField1TS.New("TargetMesh2.med",fPart.getName(),7,8)
fPartRead,pflRead=fMEDFileRead2.getFieldWithProfile(ON_CELLS,0,meshMEDFileRead)
-print fPartRead.isEqualWithoutConsideringStr(fPart.getArray(),1e-12) ; assert fPartRead.isEqualWithoutConsideringStr(fPart.getArray(),1e-12)
-print pflRead.isEqualWithoutConsideringStr(pfl) ; assert pflRead.isEqualWithoutConsideringStr(pfl)
+print(fPartRead.isEqualWithoutConsideringStr(fPart.getArray(),1e-12)) ; assert fPartRead.isEqualWithoutConsideringStr(fPart.getArray(),1e-12)
+print(pflRead.isEqualWithoutConsideringStr(pfl)) ; assert pflRead.isEqualWithoutConsideringStr(pfl)
#####
NodeField1=NodeField[proc1] ; NodeField1.getMesh().setName(m0.getName()) ; CellField1=CellField[proc1] ; CellField1.setMesh(NodeField1.getMesh())
#
proc0_fname="proc0.med"
-MEDLoader.WriteField(proc0_fname,NodeField0,True)
-MEDLoader.WriteFieldUsingAlreadyWrittenMesh(proc0_fname,CellField0)
+WriteField(proc0_fname,NodeField0,True)
+WriteFieldUsingAlreadyWrittenMesh(proc0_fname,CellField0)
proc1_fname="proc1.med"
-MEDLoader.WriteField(proc1_fname,NodeField1,True)
-MEDLoader.WriteFieldUsingAlreadyWrittenMesh(proc1_fname,CellField1)
+WriteField(proc1_fname,NodeField1,True)
+WriteFieldUsingAlreadyWrittenMesh(proc1_fname,CellField1)
#
-CellField0_read=MEDLoader.ReadFieldCell("proc0.med","mesh",0,"CellField",5,6)
-CellField1_read=MEDLoader.ReadFieldCell("proc1.med","mesh",0,"CellField",5,6)
+CellField0_read=ReadFieldCell("proc0.med","mesh",0,"CellField",5,6)
+CellField1_read=ReadFieldCell("proc1.med","mesh",0,"CellField",5,6)
CellField_read=MEDCouplingFieldDouble.MergeFields([CellField0_read,CellField1_read])
-CellFieldCpy=CellField.deepCpy()
+CellFieldCpy=CellField.deepCopy()
CellFieldCpy.substractInPlaceDM(CellField_read,10,1e-12)
CellFieldCpy.getArray().abs()
-print CellFieldCpy.getArray().isUniform(0.,1e-12)
+print(CellFieldCpy.getArray().isUniform(0.,1e-12))
#
-NodeField0_read=MEDLoader.ReadFieldNode("proc0.med","mesh",0,"NodeField",5,6)
-NodeField1_read=MEDLoader.ReadFieldNode("proc1.med","mesh",0,"NodeField",5,6)
+NodeField0_read=ReadFieldNode("proc0.med","mesh",0,"NodeField",5,6)
+NodeField1_read=ReadFieldNode("proc1.med","mesh",0,"NodeField",5,6)
NodeField_read=MEDCouplingFieldDouble.MergeFields([NodeField0_read,NodeField1_read])
NodeField_read.mergeNodes(1e-10)
-NodeFieldCpy=NodeField.deepCpy()
+NodeFieldCpy=NodeField.deepCopy()
NodeFieldCpy.mergeNodes(1e-10)
NodeFieldCpy.substractInPlaceDM(NodeField_read,10,1e-12)
-print NodeFieldCpy.getArray().isUniform(0.,1e-12) ; assert NodeFieldCpy.getArray().isUniform(0.,1e-12)
+print(NodeFieldCpy.getArray().isUniform(0.,1e-12)) ; assert NodeFieldCpy.getArray().isUniform(0.,1e-12)
#
fileNames=["proc0.med","proc1.med"]
msML=[MEDFileMesh.New(fname) for fname in fileNames]
for ft in fts:
for geoTyp,smth in ft.getFieldSplitedByType():
if geoTyp!=NORM_ERROR:
- smth1=filter(lambda x:x[0]==ON_CELLS,smth)
+ smth1=[x for x in smth if x[0]==ON_CELLS]
arr2s=[ft.getUndergroundDataArray()[elt[1][0]:elt[1][1]] for elt in smth1]
arr1s.append(DataArrayDouble.Aggregate(arr2s))
pass
pass
else:
for ft in fts:
- smth=filter(lambda x:x[0]==NORM_ERROR,ft.getFieldSplitedByType())
+ smth=[x for x in ft.getFieldSplitedByType() if x[0]==NORM_ERROR]
arr2=DataArrayDouble.Aggregate([ft.getUndergroundDataArray()[elt[1][0][1][0]:elt[1][0][1][1]] for elt in smth])
arr1s.append(arr2)
pass
if typp==ON_CELLS:
arr.renumberInPlace(o2nML[lev])
mcf=MEDCouplingFieldDouble(typp,ONE_TIME) ; mcf.setName(fieldName) ; mcf.setTime(tim,dt,it) ; mcf.setArray(arr)
- mcf.setMesh(mergeMLMesh.getMeshAtLevel(lev)) ; mcf.checkCoherency()
+ mcf.setMesh(mergeMLMesh.getMeshAtLevel(lev)) ; mcf.checkConsistencyLight()
mergeField.appendFieldNoProfileSBT(mcf)
pass
pass
remap.prepare(srcMesh,trgMesh,"P0P0")
#
myMatrix=remap.getCrudeMatrix()
-print myMatrix # pour voir a quoi elle ressemble
+print(myMatrix) # pour voir a quoi elle ressemble
sumByRows=DataArrayDouble(len(myMatrix))
for i,wIt in enumerate(sumByRows):
su=0.
for it in myMatrix[i]:
su+=myMatrix[i][it]
wIt[0]=su
-print "Does interpolation look OK ? %s"%(str(sumByRows.isUniform(1.,1e-12))) ; assert sumByRows.isUniform(1.,1e-12)
+print("Does interpolation look OK ? %s"%(str(sumByRows.isUniform(1.,1e-12)))) ; assert sumByRows.isUniform(1.,1e-12)
#
srcField=MEDCouplingFieldDouble(ON_CELLS,ONE_TIME) ; srcField.setMesh(srcMesh)
srcField.fillFromAnalytic(1,"7-sqrt((x-5.)*(x-5.)+(y-5.)*(y-5.))") ; CellField.getArray().setInfoOnComponent(0,"powercell [W]")
#
#remap.transferField(srcField,1e300)
-srcField.setNature(ConservativeVolumic)
+srcField.setNature(IntensiveMaximum)
trgFieldCV=remap.transferField(srcField,1e300)
#
-print "ConservativeVolumic %lf == %lf"%(srcField.integral(True)[0],trgFieldCV.integral(True)[0]) ; assert abs(srcField.integral(True)[0]-trgFieldCV.integral(True)[0])<1e-6
-print "ConservativeVolumic %lf != %lf"%(srcField.getArray().accumulate()[0],trgFieldCV.getArray().accumulate()[0]) ; assert abs(srcField.getArray().accumulate()[0]-trgFieldCV.getArray().accumulate()[0])>1e-6
+print("IntensiveMaximum %lf == %lf"%(srcField.integral(True)[0],trgFieldCV.integral(True)[0])) ; assert abs(srcField.integral(True)[0]-trgFieldCV.integral(True)[0])<1e-6
+print("IntensiveMaximum %lf != %lf"%(srcField.getArray().accumulate()[0],trgFieldCV.getArray().accumulate()[0])) ; assert abs(srcField.getArray().accumulate()[0]-trgFieldCV.getArray().accumulate()[0])>1e-6
#
-srcField.setNature(Integral)
+srcField.setNature(ExtensiveMaximum)
trgFieldI=remap.transferField(srcField,1e300)
#
-print "IntegralGlobConstraint %lf != %lf"%(srcField.integral(True)[0],trgFieldI.integral(True)[0]) ; assert abs(srcField.integral(True)[0]-trgFieldI.integral(True)[0])>1e-6
-print "IntegralGlobConstraint %lf == %lf"%(srcField.getArray().accumulate()[0],trgFieldI.getArray().accumulate()[0]) ; assert abs(srcField.getArray().accumulate()[0]-trgFieldI.getArray().accumulate()[0])<1e-6
+print("ExtensiveConservation %lf != %lf"%(srcField.integral(True)[0],trgFieldI.integral(True)[0])) ; assert abs(srcField.integral(True)[0]-trgFieldI.integral(True)[0])>1e-6
+print("ExtensiveConservation %lf == %lf"%(srcField.getArray().accumulate()[0],trgFieldI.getArray().accumulate()[0])) ; assert abs(srcField.getArray().accumulate()[0]-trgFieldI.getArray().accumulate()[0])<1e-6
######
from math import acos
med_root_dir=os.getenv("MEDCOUPLING_ROOT_DIR")
+agitateur_file = ""
if med_root_dir:
agitateur_file = os.path.join(os.getenv("MEDCOUPLING_ROOT_DIR"),"share","resources","med","agitateur.med")
- if not os.path.exists(agitateur_file):
- current_dir = os.path.dirname(os.path.realpath(__file__))
- agitateur_file=os.path.join(current_dir, "..", "..", "..", "resources","agitateur.med")
- pass
+if not os.path.exists(agitateur_file):
+ current_dir = os.path.dirname(os.path.realpath(__file__))
+ agitateur_file=os.path.join(current_dir, "..", "..", "..", "resources","agitateur.med")
+pass
data=MEDFileData(agitateur_file)
ts=data.getFields()[0].getTimeSteps()
-print ts
+print(ts)
#
fMts=data.getFields()["DISTANCE_INTERFACE_ELEM_BODY_ELEM_DOM"]
f1ts=fMts[(2,-1)]
fMc=f1ts.getFieldAtLevel(ON_CELLS,0)
arr=fMc.getArray()
arr.getMinMaxPerComponent() # juste pour voir la plage de variation du champ par compo
-ids=arr.getIdsInRange(0.,1.)
+ids=arr.findIdsInRange(0.,1.)
f2Mc=fMc[ids]
#
pressMts=data.getFields()["PRESSION_ELEM_DOM"]
agitateurMesh3DMc=pressOnAgitateurMc.getMesh()
m3DSurf,desc,descI,revDesc,revDescI=agitateurMesh3DMc.buildDescendingConnectivity()
nbOf3DCellSharing=revDescI.deltaShiftIndex()
-ids2=nbOf3DCellSharing.getIdsEqual(1)
+ids2=nbOf3DCellSharing.findIdsEqual(1)
agitateurSkinMc=m3DSurf[ids2]
OffsetsOfTupleIdsInField=revDescI[ids2]
tupleIdsInField=revDesc[OffsetsOfTupleIdsInField]
#
singlePolyhedron=agitateurMesh3DMc.buildSpreadZonesWithPoly()
singlePolyhedron.orientCorrectlyPolyhedrons()
-centerOfMass=singlePolyhedron.getBarycenterAndOwner()
+centerOfMass=singlePolyhedron.computeCellCenterOfMass()
-barySkin=agitateurSkinMc.getBarycenterAndOwner()
+barySkin=agitateurSkinMc.computeCellCenterOfMass()
posSkin=barySkin-centerOfMass
torquePerCellOnSkin=DataArrayDouble.CrossProduct(posSkin,forceVectSkin)
zeTorque=torquePerCellOnSkin.accumulate()
-print "couple = %r N.m"%(zeTorque[2]) ; assert abs(zeTorque[2]-0.37)<1e-2
+print("couple = %r N.m"%(zeTorque[2])) ; assert abs(zeTorque[2]-0.37)<1e-2
speedMts=data.getFields()["VITESSE_ELEM_DOM"]
speed1ts=speedMts[(2,-1)]
speedOnSkin=speedMc.getArray()[tupleIdsInField]
powerSkin=DataArrayDouble.Dot(forceVectSkin,speedOnSkin)
power=powerSkin.accumulate()[0]
-print "power = %r W"%(power) ; assert abs(power-4.22)<1e-2
+print("power = %r W"%(power)) ; assert abs(power-4.22)<1e-2
x2=posSkin[:,0]*posSkin[:,0] ; x2=x2.accumulate()[0]
y2=posSkin[:,1]*posSkin[:,1] ; y2=y2.accumulate()[0]
inertiaSkinValues,inertiaSkinVects=linalg.eig(inertiaSkin)
pos=max(enumerate(inertiaSkinValues),key=lambda x: x[1])[0]
vect0=inertiaSkinVects[pos].tolist()[0]
-print vect0
+print(vect0)
def computeAngle(locAgitateur1ts):
fMc=locAgitateur1ts.getFieldAtLevel(ON_CELLS,0)
arr=fMc.getArray()
- ids=arr.getIdsInRange(0.,1.)
+ ids=arr.findIdsInRange(0.,1.)
f2Mc=fMc[ids]
m3DSurf,desc,descI,revDesc,revDescI=f2Mc.getMesh().buildDescendingConnectivity()
nbOf3DCellSharing=revDescI.deltaShiftIndex()
- ids2=nbOf3DCellSharing.getIdsEqual(1)
+ ids2=nbOf3DCellSharing.findIdsEqual(1)
agitateurSkinMc=m3DSurf[ids2]
#
singlePolyhedron=agitateurMesh3DMc.buildSpreadZonesWithPoly()
singlePolyhedron.orientCorrectlyPolyhedrons()
- centerOfMass=singlePolyhedron.getBarycenterAndOwner()
- bary=agitateurSkinMc.getBarycenterAndOwner()
+ centerOfMass=singlePolyhedron.computeCellCenterOfMass()
+ bary=agitateurSkinMc.computeCellCenterOfMass()
posSkin=bary-centerOfMass
x2=posSkin[:,0]*posSkin[:,0] ; x2=x2.accumulate()[0]
y2=posSkin[:,1]*posSkin[:,1] ; y2=y2.accumulate()[0]
pass
angle2=len(ts)*[0.]
-for pos in xrange(2,len(vects)):
+for pos in range(2, len(vects)):
norm1=sqrt(vects[pos-1][0]*vects[pos-1][0]+vects[pos-1][1]*vects[pos-1][1])
norm2=sqrt(vects[pos][0]*vects[pos][0]+vects[pos][1]*vects[pos][1])
crs=vects[pos-1][0]*vects[pos][0]+vects[pos-1][1]*vects[pos][1]
pass
omega=sum(angle2)/(ts[-1][2]-ts[0][2])
-print sum(angle2) ; assert abs(sum(angle2)-1.12)<1e-2
-print "Au pdt (%d,%d) a %r s le couple est de : %r N.m, power/omega=%r N.m"%(ts[2][0],ts[2][1],ts[2][2],zeTorque[2],power/omega)
+print(sum(angle2)) ; assert abs(sum(angle2)-1.12)<1e-2
+print("Au pdt (%d,%d) a %r s le couple est de : %r N.m, power/omega=%r N.m"%(ts[2][0],ts[2][1],ts[2][2],zeTorque[2],power/omega))
assert abs(power/omega-0.37)<1e-2
