Quantum dot dephasing by edge states
arXiv:cond-mat/9907055 · doi:10.1103/PhysRevB.61.4748
Abstract
We calculate the dephasing rate of an electron state in a pinched quantum dot, due to Coulomb interactions between the electron in the dot and electrons in a nearby voltage biased ballistic nanostructure. The dephasing is caused by nonequilibrium time fluctuations of the electron density in the nanostructure, which create random electric fields in the dot. As a result, the electron level in the dot fluctuates in time, and the coherent part of the resonant transmission through the dot is suppressed.
Cited by in corpus (24)
- Adiabatic transport in nanostructures
- Controlled Dephasing of Electrons by Non-Gaussian Shot Noise
- Quantum mechanical complementarity probed in a closed-loop Aharonov-Bohm interferometer
- The noise spectra of a biased quantum dot
- Delayed currents and interaction effects in mesoscopic capacitors
- Quantum mechanical approach to decoherence and relaxation generated by fluctuating environment
- Charge densities and charge noise in mesoscopic conductors
- Quantum measurement of a solid-state qubit: A unified quantum master equation approach revisited
- Steps and dips in the ac conductance and noise of mesoscopic structures
- Interactions and Weak Localization: Perturbation Theory and Beyond
- Acoustoelectric current and pumping in a ballistic quantum point contact
- Two-particle scattering matrix of two interacting mesoscopic conductors
- On the validity and breakdown of the Onsager symmetry in mesoscopic conductors interacting with environments
- Spin-polarized electric currents in quantum transport through tubular two-dimensional electron gases
- Effects of Entanglement in Controlled Dephasing
- Decoherence of the Kondo Singlet via a Quantum Point Contact Detector
- Charge Detection in a Closed-Loop Aharonov-Bohm Interferometer
- Acoustoelectric pumping through a ballistic point contact in the presence of magnetic fields
- Entanglement, measurement, and conditional evolution of the Kondo singlet interacting with a mesoscopic detector
- Current deformation and quantum inductance in mesoscopic capacitors
- Quantized adiabatic quantum pumping due to interference
- Langevin dynamics of a heavy particle and orthogonality effects
- Non-equilibrium charge noise and dephasing from a spin-incoherent Luttinger liquid
- Tunable decoherence in the vicinity of a normal metal-superconducting junction