On the Coulomb interaction in chiral-invariant one-dimensional electron systems
arXiv:cond-mat/9903022 · doi:10.1007/s100510070070
Abstract
We consider a one-dimensional electron system, suitable for the description of the electronic correlations in a metallic carbon nanotube. Renormalization group methods are used to study the low-energy behavior of the unscreened Coulomb interaction between currents of well-defined chirality. In the limit of a very large number n of subbands we find a strong renormalization of the Fermi velocity, reminiscent of a similar phenomenon in the graphite sheet. For small n or sufficiently low energy, the Luttinger liquid behavior takes over, with a strong wavefunction renormalization leading to a vanishing quasiparticle weight. Our approach is appropriate to study the crossover from two-dimensional to one-dimensional behavior in carbon nanotubes of large radius.
8 pages, 2 figures, LaTeX, PACS: 71.27.+a, 73.20.D, 05.30.Fk
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