Open quantum systems beyond Fermi's golden rule: Diagrammatic expansion of the steady-state time-convolutionless master equation
arXiv:2010.09838 · doi:10.1103/PhysRevResearch.3.023127
Abstract
Steady-state observables, such as occupation numbers and currents, are crucial experimental signatures in open quantum systems. The time-convolutionless (TCL) master equation, which is both exact and time-local, is an ideal candidate for the perturbative computation of such observables. We develop a diagrammatic approach to evaluate the steady-state TCL generator based on operators rather than superoperators. We obtain the steady-state occupation numbers, extend our formulation to the calculation of currents, and provide a simple physical interpretation of the diagrams. We further benchmark our method on a single non-interacting level coupled to Fermi reservoirs, where we recover the exact expansion to next-to-leading order. The low number of diagrams appearing in our formulation makes the extension to higher orders accessible. Combined, these properties make the steady-state time-convolutionless master equation an effective tool for the calculation of steady-state properties in open quantum systems.
38 pages, 26 figures (6 pages, 2 figures in appendix), comments welcome
References in corpus (19)
- Many-Body Physics with Ultracold Gases
- The density-matrix renormalization group in the age of matrix product states
- The numerical renormalization group method for quantum impurity systems
- Quantum States and Phases in Driven Open Quantum Systems with Cold Atoms
- Theory of the Franck-Condon blockade regime
- Strong Coupling Cavity QED with Gate-Defined Double Quantum Dots Enabled by a High Impedance Resonator
- Tunneling through molecules and quantum dots: master-equation approaches
- A perturbative nonequilibrium renormalization group method for dissipative quantum mechanics: Real-time RG in frequency space (RTRG-FS)
- Superconducting Qubits: A Short Review
- Fermionic superoperators for zero-temperature non-linear transport: real-time perturbation theory and renormalization group for Anderson quantum dots
- Keldysh meets Lindblad: Correlated Gain and Loss in Higher-Order Perturbation Theory
- Dephasing-assisted Gain and Loss in Mesoscopic Quantum Systems
- Anderson Model out of equilibrium: decoherence effects in transport through a quantum dot
- Renormalized Lindblad Driving: A Numerically-Exact Nonequilibrium Quantum Impurity Solver
- Inelastic cotunneling in quantum dots and molecules with weakly broken degeneracies
- Nonequilibrium quantum dynamics of the magnetic Anderson model
- Dissipative Rabi model in the dispersive regime
- Time-convolutionless master equation: Perturbative expansions to arbitrary order and application to quantum dots
- Quantum measurement induces a many-body transition
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