Universality and the zero-bias conductance of the single-electron transistor
arXiv:0906.4063 · doi:10.1103/PhysRevB.80.235317
Abstract
The thermal dependence of the electrical conductance of the single-electron transistor (SET) in the zero-bias Kondo regime is discussed. An exact mapping to the universal curve for the symmetric Anderson model is established. Linear, the mapping is parametrized by the Kondo temperature and the charge in the Kondo cloud. Illustrative numerical renormalization-group results, in excellent agreement with the mapping, are presented.
14 paged, 6 figures; submitted to Physical Review B
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- Voltage quench dynamics of a Kondo system
- Generalization of the Time-Dependent Numerical Renormalization Group Method to Finite Temperatures and General Pulses
- Conductance scaling in Kondo correlated quantum dots: role of level asymmetry and charging energy
- Detection of Majorana edge states in topological superconductors through the non-Fermi-liquid effects induced in an interacting quantum dot
- Magnetic Field Universality of the Kondo Effect Revealed by Thermocurrent Spectroscopy
- Nonequilibrium thermoelectric transport through vibrating molecular quantum dots
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- Magnetic field dependence of the thermopower of Kondo-correlated quantum dots
- Magnetic field dependence of the thermopower of Kondo-correlated quantum dots: Comparison with experiment
- Influence of phonon-assisted tunneling on the linear thermoelectric transport through molecular quantum dots
- Isolating Majorana fermions with finite Kitaev nanowires and temperature: the universality of the zero-bias conductance
- Orbital caloritronic transport in strongly interacting quantum dots
- Universality and thermoelectric transport properties of quantum dot systems
- Leading temperature dependence of the conductance in Kondo-correlated quantum dots
- Spin-orbit coupling effects over thermoelectric transport properties in quantum dots
- How sharply does the Anderson model depict a single-electron transistor?
- Non-Zeeman splitting for a spin-resolved STM with a Kondo adatom in a spin-polarized two-dimensional electron gas
- Transport in Single Quantum Dots: A Review from Linear Response to Nonlinear Regimes