We present a formalism for calculating the non-symmetrized quantum current noise within the Born-Markov approximation for the master equation. The formalism is particularly well suited to obtaining the current noise for quantum transport in mesoscopic devices such as a superconducting single electron transistor (SSET). As an example of the method, we obtain explicit results for the double Josephson-quasiparticle (DJQP) resonance in a SSET. Our calculations reveal the asymmetries that develop in the current noise as well as clarifying the behavior at high frequencies. Our findings are consistent with recent measurements of the asymmetry in the current noise spectrum
We apply the quantum trajectory method to current noise in resonant tunneling devices. The results f...
We analyze the charge dynamics of a superconducting single-electron transistor (SSET) in the regime ...
We analyze the charge dynamics of a superconducting single-electron transistor (SSET) in the regime ...
5 pages, 3 figuresInternational audienceQuantum coherent oscillations in the electric charge passing...
5 pages, 3 figuresInternational audienceQuantum coherent oscillations in the electric charge passing...
Quantum coherent oscillations in the electric charge passing through a mesoscopic conductor can give...
Quantum coherent oscillations in the electric charge passing through a mesoscopic conductor can give...
Quantum coherent oscillations in the electric charge passing through a mesoscopic conductor can give...
Quantum coherent oscillations in the electric charge passing through a mesoscopic conductor can give...
Quantum coherent oscillations in the electric charge passing through a mesoscopic conductor can give...
5 pages, 3 figuresInternational audienceQuantum coherent oscillations in the electric charge passing...
A quantum Markovian master equation is derived to describe the current noise in resonant tunnelling...
A quantum Markovian master equation is derived to describe the current noise in resonant tunnelling ...
We apply the quantum trajectory method to current noise in resonant tunneling devices. The results f...
Based on our recent work on quantum transport [X. Q. Li , Phys. Rev. B 71, 205304 (2005)], we show h...
We apply the quantum trajectory method to current noise in resonant tunneling devices. The results f...
We analyze the charge dynamics of a superconducting single-electron transistor (SSET) in the regime ...
We analyze the charge dynamics of a superconducting single-electron transistor (SSET) in the regime ...
5 pages, 3 figuresInternational audienceQuantum coherent oscillations in the electric charge passing...
5 pages, 3 figuresInternational audienceQuantum coherent oscillations in the electric charge passing...
Quantum coherent oscillations in the electric charge passing through a mesoscopic conductor can give...
Quantum coherent oscillations in the electric charge passing through a mesoscopic conductor can give...
Quantum coherent oscillations in the electric charge passing through a mesoscopic conductor can give...
Quantum coherent oscillations in the electric charge passing through a mesoscopic conductor can give...
Quantum coherent oscillations in the electric charge passing through a mesoscopic conductor can give...
5 pages, 3 figuresInternational audienceQuantum coherent oscillations in the electric charge passing...
A quantum Markovian master equation is derived to describe the current noise in resonant tunnelling...
A quantum Markovian master equation is derived to describe the current noise in resonant tunnelling ...
We apply the quantum trajectory method to current noise in resonant tunneling devices. The results f...
Based on our recent work on quantum transport [X. Q. Li , Phys. Rev. B 71, 205304 (2005)], we show h...
We apply the quantum trajectory method to current noise in resonant tunneling devices. The results f...
We analyze the charge dynamics of a superconducting single-electron transistor (SSET) in the regime ...
We analyze the charge dynamics of a superconducting single-electron transistor (SSET) in the regime ...