function d=dipole_elementRb87D1line(Fl,ml,Fu,mu) % Fl, ml are F and m quantum numbers of lower state % Fu, mu are F and m quantum numbers of upper state % F is total momentum and m is projection d.left = 0; %default return value d.linear = 0; %default return value d.right = 0; %default return value if ( mu==(ml+1) ) % sigma plus polarization % ------ Fl=2 -> Fu=2 -------- if ( (ml==-2) & (Fl==2) & (Fu==2) ) d.right=sqrt(1/6); endif if ( (ml==-1) & (Fl==2) & (Fu==2) ) d.right=sqrt(1/4); endif if ( (ml== 0) & (Fl==2) & (Fu==2) ) d.right=sqrt(1/4); endif if ( (ml== 1) & (Fl==2) & (Fu==2) ) d.right=sqrt(1/6); endif if ( (ml== 2) & (Fl==2) & (Fu==2) ) d.right=0; endif % ------ Fl=2 -> Fu=1 -------- if ( (ml==-2) & (Fl==2) & (Fu==1) ) d.right=sqrt(1/2); endif if ( (ml==-1) & (Fl==2) & (Fu==1) ) d.right=sqrt(1/4); endif if ( (ml== 0) & (Fl==2) & (Fu==1) ) d.right=sqrt(1/12); endif if ( (ml== 1) & (Fl==2) & (Fu==1) ) d.right=0; endif if ( (ml== 2) & (Fl==2) & (Fu==1) ) d.right=0; endif % ------ Fl=1 -> Fu=2 -------- if ( (ml==-1) & (Fl==1) & (Fu==2) ) d.right = -sqrt(1/12); endif if ( (ml== 0) & (Fl==1) & (Fu==2) ) d.right = -sqrt(1/4); endif if ( (ml== 1) & (Fl==1) & (Fu==2) ) d.right = -sqrt(1/2); endif % ------ Fl=1 -> Fu=1 -------- if ( (ml==-1) & (Fl==1) & (Fu==1) ) d.right = -sqrt(1/12); endif if ( (ml== 0) & (Fl==1) & (Fu==1) ) d.right = -sqrt(1/12); endif if ( (ml== 1) & (Fl==1) & (Fu==1) ) d.right = 0; endif endif if ( mu==(ml+0) ) % pi polarization % ------ Fl=2 -> Fu=2 -------- if ( (ml==-2) & (Fl==2) & (Fu==2) ) d.linear=-sqrt(1/3); endif if ( (ml==-1) & (Fl==2) & (Fu==2) ) d.linear=-sqrt(1/12); endif if ( (ml== 0) & (Fl==2) & (Fu==2) ) d.linear=0; endif if ( (ml== 1) & (Fl==2) & (Fu==2) ) d.linear=sqrt(1/12); endif if ( (ml== 2) & (Fl==2) & (Fu==2) ) d.linear=sqrt(1/3); endif % ------ Fl=2 -> Fu=1 -------- if ( (ml==-2) & (Fl==2) & (Fu==1) ) d.linear = 0; endif if ( (ml==-1) & (Fl==2) & (Fu==1) ) d.linear=sqrt(1/4); endif if ( (ml== 0) & (Fl==2) & (Fu==1) ) d.linear=sqrt(1/3); endif if ( (ml== 1) & (Fl==2) & (Fu==1) ) d.linear=sqrt(1/4); endif if ( (ml== 2) & (Fl==2) & (Fu==1) ) d.linear = 0; endif % ------ Fl=1 -> Fu=2 -------- if ( (ml==-1) & (Fl==1) & (Fu==2) ) d.linear = sqrt(1/4); endif if ( (ml== 0) & (Fl==1) & (Fu==2) ) d.linear = sqrt(1/2); endif if ( (ml== 1) & (Fl==1) & (Fu==2) ) d.linear = sqrt(1/4); endif % ------ Fl=1 -> Fu=1 -------- if ( (ml==-1) & (Fl==1) & (Fu==1) ) d.linear = sqrt(1/12); endif if ( (ml== 0) & (Fl==1) & (Fu==1) ) d.linear = 0; endif if ( (ml== 1) & (Fl==1) & (Fu==1) ) d.linear = -sqrt(1/12); endif endif if ( mu==(ml-1) ) % sigma minus polarization % ------ Fl=2 -> Fu=2 -------- if ( (ml==-2) & (Fl==2) & (Fu==2) ) d.left = 0; endif if ( (ml==-1) & (Fl==2) & (Fu==2) ) d.left = -sqrt(1/6); endif if ( (ml== 0) & (Fl==2) & (Fu==2) ) d.left = -sqrt(1/4); endif if ( (ml== 1) & (Fl==2) & (Fu==2) ) d.left = -sqrt(1/4); endif if ( (ml== 2) & (Fl==2) & (Fu==2) ) d.left = -sqrt(1/6); endif % ------ Fl=2 -> Fu=1 -------- if ( (ml==-2) & (Fl==2) & (Fu==1) ) d.left = 0; endif if ( (ml==-1) & (Fl==2) & (Fu==1) ) d.left = 0; endif if ( (ml== 0) & (Fl==2) & (Fu==1) ) d.left = sqrt(1/12); endif if ( (ml== 1) & (Fl==2) & (Fu==1) ) d.left = sqrt(1/4); endif if ( (ml== 2) & (Fl==2) & (Fu==1) ) d.left = sqrt(1/2); endif % ------ Fl=1 -> Fu=2 -------- if ( (ml==-1) & (Fl==1) & (Fu==2) ) d.left = -sqrt(1/2); endif if ( (ml== 0) & (Fl==1) & (Fu==2) ) d.left = -sqrt(1/4); endif if ( (ml== 1) & (Fl==1) & (Fu==2) ) d.left = -sqrt(1/12); endif % ------ Fl=1 -> Fu=1 -------- if ( (ml==-1) & (Fl==1) & (Fu==1) ) d.left = 0; endif if ( (ml== 0) & (Fl==1) & (Fu==1) ) d.left = sqrt(1/12); endif if ( (ml== 1) & (Fl==1) & (Fu==1) ) d.left = sqrt(1/12); endif endif endfunction % vim: ts=2:sw=2:fdm=indent