Similarly, one obtains the other $3 \times 3$ particle matrices from a phase product. Note that the down quark phases differ from the up phases only by a column permutation (color index) and complex conjugation. This is quark lepton/boson complementarity. We cannot ignore bosons in Fourier supersymmetry. For example, the identity photon matrix is obtained from the product of $T(\overline{d}_{R})$ and its entrywise complex conjugate. But complex conjugates do not always define inverses! For example, the product of $T(\overline{u}_{L})$ with its conjugate is the $e_{L}^{+}$ matrix, which equals $\omega \cdot (231)$.
15 years ago


No comments:
Post a Comment
Note: Only a member of this blog may post a comment.