Additivity Principle in High-dimensional Deterministic Systems
arXiv:1106.2907 · doi:10.1103/PhysRevLett.107.250601
Abstract
The additivity principle (AP), conjectured by Bodineau and Derrida [Phys. Rev. Lett. vol.92, 180601 (2004)], is discussed for the case of heat conduction in three-dimensional disordered harmonic lattices to consider the effects of deterministic dynamics, higher dimensionality, and different transport regimes, i.e., ballistic, diffusive, and anomalous transport. The cumulant generating function (CGF) for heat transfer is accurately calculated, and compared with the one given by the AP. In the diffusive regime, we find a clear agreement with the conjecture even if the system is high-dimensional. Surprisingly even in the anomalous regime the CGF is also well fitted by the AP. Lower dimensional systems are also studied and the importance of three-dimensionality for the validity is stressed.
8 pages, 7 figures
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- Current fluctuations in boundary driven diffusive systems in different dimensions: a numerical study
- Interacting Non-equilibrium Systems with Two Temperatures
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