Directing transport by polarized radiation in presence of chaos and dissipation
arXiv:cond-mat/0402675 · doi:10.1103/PhysRevB.71.052508
Abstract
We study numerically the dynamics of particles on the Galton board of semi-disk scatters in presence of monochromatic radiation and dissipation. It is shown that under certain conditions the radiation leads to appearance of directed transport linked to an underlining strange attractor. The direction of transport can be efficiently changed by radiation polarization. The experimental realization of this effect in asymmetric antidot superlattices is discussed.
arXiv commentrevtex, 4 pages, 6 figs
References in corpus (9)
- Brownian motors: noisy transport far from equilibrium
- Directed current due to broken time-space symmetry
- Chaotic Transport and Current Reversal in Deterministic Ratchets
- Classical and Quantum Hamiltonian Ratchets
- Brownian motion exhibiting absolute negative mobility
- Quantum ratchet effect for vortices
- Quenched and Negative Hall Effect in Periodic Media: Application to Antidot Superlattices
- Dynamical turbulent flow on the Galton board with friction
- Dynamical turbulent flow on the Galton board with friction and magnetic field
Cited by in corpus (12)
- Artificial Brownian motors: Controlling transport on the nanoscale
- Tunable transport with broken space-time symmetries
- Experimental investigation of the ratchet effect in a two-dimensional electron system with broken spatial inversion symmetry
- Photogalvanic current in artificial asymmetric nanostructures
- Properties of 1D two-barrier quantum pump with harmonically oscillating barriers
- Ratchet transport of interacting particles
- Photocurrent in nanostructures with asymmetric antidots
- Directed transport born from chaos in asymmetric antidot structures
- Theory of one-dimensional double-barrier quantum pump in two-frequency signal regime
- Photovoltage in curved 1D systems
- Magnetization of ballistic quantum dots induced by a linear-polarized microwave field
- Symmetry breaking for ratchet transport in presence of interactions and magnetic field