Mode-coupling theory of sheared dense granular liquids
arXiv:0710.4188 · doi:10.1143/PTP.119.381
Abstract
Mode-coupling theory (MCT) of sheared dense granular liquids %in the vicinity of jamming transition is formulated. Starting from the Liouville equation of granular particles, the generalized Langevin equation is derived with the aid of the projection operator technique. The MCT equation for the density correlation function obtained from the generalized Langevin equation is almost equivalent to MCT equation for elastic particles under the shear. It is found that there should be the plateau in the density correlation function.
22 pages, 2 figure. to be published in Progress of Theoretical Physics. to be published in Progress of Theoretical Physics
Cited by in corpus (9)
- Critical behaviors of sheared frictionless granular materials near jamming transition
- Divergence of Viscosity in Jammed Granular Materials: A Theoretical Approach
- Nonequilibrium mode-coupling theory for uniformly sheared systems
- Nonequilibrium mode-coupling theory for uniformly sheared underdamped systems
- Nonequilibrium identities and response theory for dissipative particles
- Spatial correlations in sheared isothermal liquids : From elastic particles to granular particles
- Irreversible Boltzmann samplers in dense liquids: weak-coupling approximation and mode-coupling theory
- Kinetic theory for strong uniform shear flow of granular media at high density
- Nonequilibrium identities of granular vibrating beds