Path extrema of the entropy-production martingale define an upper envelope U_ext for mean entropy production, with the actual mean equal to U_ext minus allocation gap A and curvature gap C.
Seifert, Reports on Progress in Physics75, 126001 (2012)
4 Pith papers cite this work. Polarity classification is still indexing.
verdicts
UNVERDICTED 4representative citing papers
Derives spectral inequalities bounding the deviation of causal susceptibility from equilibrium FDT reference by entropy production rate and relaxation timescales in driven Markov jump processes.
Flux control creates flat bands in a frustrated bosonic lattice that suppress heat loss and raise Otto-cycle work extraction while Stirling cycles gain work over wider ranges at lower efficiency.
Asymmetric well widths and barrier in a bistable potential allow finite-time bit erasure with heat below kT ln 2, bounded below by the effective free-energy change of the process.
citing papers explorer
-
Path-Extrema Upper Bounds on Mean Entropy Production
Path extrema of the entropy-production martingale define an upper envelope U_ext for mean entropy production, with the actual mean equal to U_ext minus allocation gap A and curvature gap C.
-
Spectral Fluctuation-Dissipation-Response Inequalities
Derives spectral inequalities bounding the deviation of causal susceptibility from equilibrium FDT reference by entropy production rate and relaxation timescales in driven Markov jump processes.
-
Bosonic Working Media in a Frustrated Rhombi Chain: Otto and Stirling Cycles from Flat Bands, Caging, and Flux Control
Flux control creates flat bands in a frustrated bosonic lattice that suppress heat loss and raise Otto-cycle work extraction while Stirling cycles gain work over wider ranges at lower efficiency.
-
Improving the efficiency of finite-time memory erasure with potential barrier shaping
Asymmetric well widths and barrier in a bistable potential allow finite-time bit erasure with heat below kT ln 2, bounded below by the effective free-energy change of the process.