Irreversibility in an optical parametric driven optomechanical system
arXiv:2303.11095 · doi:10.1002/andp.202300400
Abstract
We investigate the role of nonlinearity via optical parametric oscillator on the entropy production rate and quantum correlations in a hybrid optomechanical system. Specifically, we derive the modified entropy production rate of an optical parametric oscillator placed in the optomechanical cavity which is well described by the two-mode Gaussian state. We find a dramatic deviation in the irreversibility and quantum mutual information for small detuning. Our analysis shows that the system irreversibility can be reduced by choosing the appropriate phase of the self-induced nonlinearity. We further demonstrate that the nonlinearity effect persist for a reasonable range of cavity decay rate.
8 pages 4 figures
References in corpus (9)
- Quantum technologies with hybrid systems
- Quantum thermodynamic devices: from theoretical proposals to experimental reality
- Classical to Quantum Transition of a Driven Nonlinear Nanomechanical Resonator
- The Wigner Entropy Production Rate
- Robust force sensing for a free particle in a dissipative optomechanical system with a parametric amplifier
- Kerr enhanced backaction cooling in magnetomechanics
- Nonlocal quantum heat engines made of hybrid superconducting devices
- Optomechanical cooling with coherent and squeezed light: the thermodynamic cost of opening the heat valve
- Irreversible Entropy Production rate in a parametrically driven-dissipative System: The Role of Self-Correlation between Noncommuting Observables