NMR Relaxation Rate for 1D Multicomponent Spin-Orbital Systems
Akira Kawaguchi, Tatsuya Fujii, Norio Kawakami
Abstract
The NMR relaxation rate 1/T1 is studied for one-dimensional multicomponent spin-orbital systems. By combining the bosonization techniques and the exact solution of the SU(n) model, we evaluate the power-law exponent and the enhancement factor for 1/T1 at low temperatures. We discuss how the band splitting affects the relaxation rate, and find that 1/T1 may be enhanced around the critical value of the band splitting. The crossover behavior in 1/T1 around the critical point is discussed in terms of the low-frequency dynamical spin susceptibility. The effect of the hole-doping is also addressed.
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