Title

Transverse Dynamics and Relaxation in Spin-Polarized or Two-Level Fermi Systems

Authors

Alexander E. Meyerovich, University of Rhode IslandFollow
K. A. Musaelian, University of Rhode Island

Document Type

Article

Date of Original Version

2-1-1993

Abstract

A microscopic theory is proposed for transverse dynamics and zero-temperature attenuation in polarized Fermi liquids. The transport equations are a set of two coupled equations in two ‘‘partial transverse densities,’’ which do not reduce to a single equation in a mixed component of a single-particle distribution. The effective interaction is linked to an irreducible vertex by an integral equation, and cannot be given as a limit of a full vertex. A framework for a generalized nonlocal Landau theory is established. The spectrum of attenuating spin waves is calculated at arbitrary polarizations and densities.

Citation/Publisher Attribution

Meyerovich, A. E., & Musaelian, K. A. (1993). Transverse Dynamics and Relaxation in Spin-Polarized or Two-Level Fermi Systems. Phys.Rev. B, 47, 2897-2900. doi: 10.1103/PhysRevB.47.2897

Available at: http://dx.doi.org/10.1103/PhysRevB.47.2897

Publisher Statement

© 1993 The American Physical Society