>> q = 0.5;>> epsilon = strainTensor(diag([1 -q -(1-q)]))>> ori= odf.calcOrientations(10000) >> [M,b,mori] = calcTaylor(inv(ori)*epsilon,sS.symmetrise);--
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Pole Figure
>> pf;
>> pf(pf.intensities<0)=0;
>> pf_back = correct(pf,'background');
>> pf_def = correct(pf_back,'def');
>> pf_norm = normalize(pf_def);
>> plot(pf_norm,'contourf')
>> CLim(gcm,'equal');
ODF
>> odf = calcODF(pf_norm);
>> plotSection(odf,'phi1','sections',9,'silent')
Slip systems of hcp
sSBasal = slipSystem.basal(CS);sSBasalSym = sSBasal.symmetrise('antipodal') sSPrismatic = slipSystem.prismaticA(CS)sSPrismaticSym = sSPrismatic.symmetrise('antipodal') sSPyramidal = slipSystem.pyramidalCA(CS)sSPyramidalSym = sSPyramidal.symmetrise('antipodal') sSPyramidal2 = slipSystem.pyramidal2CA(CS)sSPyramidal2Sym = sSPyramidal2.symmetrise('antipodal') sS= [sSBasalSym; sSPrismaticSym; sSPyramidalSym; sSPyramidal2Sym]
Taylor factor calculation (compression)
>> q = 0.5;>> epsilon = strainTensor(diag([1 -q -(1-q)]))>> ori= odf.calcOrientations(10000) >> sP = phi1Sections(CS,specimenSymmetry('mmm'));>> sP.phi1 = (0:10:90)*degree; >> oriGrid = sP.makeGrid('resolution',2.5*degree);>> oriGrid.SS = specimenSymmetry; tic[M,~,mori] = calcTaylor(inv(oriGrid)*epsilon,sS.symmetrise);tocsP.plot(M,'smooth')
sP.plot(M,'smooth')
mtexColorbar