Enhanced Transmission Due to Disorder
arXiv:cond-mat/9502116 · doi:10.1103/PhysRevE.51.6301
Abstract
The transmissivity of a one-dimensional random system that is periodic on average is studied. It is shown that the transmission coefficient for frequencies corresponding to a gap in the band structure of the average periodic system increases with increasing disorder while the disorder is weak enough. This property is shown to be universal, independent of the type of fluctuations causing the randomness. In the case of strong disorder the transmission coefficient for frequencies in allowed bands is found to be a non monotonic function of the strength of the disorder. An explanation for the latter behavior is provided.
9 pages, RevTeX 3.0, 4 Postscript figures
Cited by in corpus (17)
- Transport and localization in periodic and disordered graphene superlattices
- Statistics of Lyapunov exponent in 1-D random periodic-on-average systems
- Impurity-assisted tunneling in graphene
- Acoustic wave propagation in an one-dimensional layered system
- Anderson localization in metamaterials and other complex media
- Supratransmission in a Disordered Nonlinear Periodic Structure
- Localization of transverse waves in randomly layered media at oblique incidence
- Disorder-induced cavities, resonances, and lasing in randomly-layered media
- Non-monotonic disorder-induced enhanced tunneling
- Is friction responsible for the reduction of fusion rates far below the Coulomb barrier?
- Enhanced quantum tunnelling induced by disorder
- Wave Transport in One-Dimensional Disordered Systems with Finite-Size Scatterers
- Time delay in a disordered topological system
- Dynamics of transmission in disordered topological insulators
- Effect of dielectric responses on localization in 1D random periodic-on-average systems
- Coherent random lasing in a disordered array of amplifying microresonators
- Universal and nonuniversal statistics of transmission in thin random layered media