We generalize the theory of thermoelectrics to include coherent electron systems under adiabatic ac driving, accounting for quantum pumping of charge and heat, as well as for the work exchanged between the electron system and driving potentials. We derive the relevant response coefficients in the adiabatic regime and show that they obey generalized Onsager reciprocity relations. We analyze the consequences of our generalized thermoelectric framework for quantum motors, generators, heat engines, and heat pumps, characterizing them in terms of efficiencies and figures of merit. We illustrate these concepts in a model for a quantum pump
The trade-off between large power output, high efficiency and small fluctuations in the operation of...
Based on the Landauer–Büttiker theory, we explore the thermal regimes of two-terminal nanoscale syst...
Understanding heat transfer between a quantum system and its environment is of undisputed importance...
In recent years, the study of heat to work conversion has been re-invigorated by nanotechnology. Ste...
We analyze the power output of a quantum dot machine coupled to two electronic reservoirs via thermo...
We study the thermoelectric properties and heat-to-work conversion performance of an interacting, mu...
The efficiency of a thermal engine working in the linear response regime in a multi-terminal config...
The trade-off between large power output, high efficiency and small fluctuations in the operation of...
We review a recent theoretical development based on non-equilibrium Green's function formalism to st...
We analyze the time-resolved energy transport and the entropy production in ac-driven quantum cohere...
We present a general unified approach for the study of quantum thermal machines, including both heat...
We study the relation between quantum pumping of charge and the work exchanged with the driving pote...
Periodically driven coherent conductors provide a universal platform for the development of quantum ...
The trade-off between large power output, high efficiency and small fluctuations in the operation of...
Based on the Landauer–Büttiker theory, we explore the thermal regimes of two-terminal nanoscale syst...
Understanding heat transfer between a quantum system and its environment is of undisputed importance...
In recent years, the study of heat to work conversion has been re-invigorated by nanotechnology. Ste...
We analyze the power output of a quantum dot machine coupled to two electronic reservoirs via thermo...
We study the thermoelectric properties and heat-to-work conversion performance of an interacting, mu...
The efficiency of a thermal engine working in the linear response regime in a multi-terminal config...
The trade-off between large power output, high efficiency and small fluctuations in the operation of...
We review a recent theoretical development based on non-equilibrium Green's function formalism to st...
We analyze the time-resolved energy transport and the entropy production in ac-driven quantum cohere...
We present a general unified approach for the study of quantum thermal machines, including both heat...
We study the relation between quantum pumping of charge and the work exchanged with the driving pote...
Periodically driven coherent conductors provide a universal platform for the development of quantum ...
The trade-off between large power output, high efficiency and small fluctuations in the operation of...
Based on the Landauer–Büttiker theory, we explore the thermal regimes of two-terminal nanoscale syst...
Understanding heat transfer between a quantum system and its environment is of undisputed importance...