Symmetry Induced Enhancement in Finite-Time Thermodynamic Trade-Off Relations.

Area of Science:

• Quantum thermodynamics
• Open quantum systems
• Non-equilibrium statistical mechanics

Background:

• Symmetry influences open quantum systems and their dissipative properties.
• Superradiance demonstrates collective enhancement in decay rates due to symmetry.
• Existing frameworks for symmetry in finite-time thermodynamics are limited.

Purpose of the Study:

• To establish a general framework for symmetry's impact on finite-time thermodynamics.
• To derive fundamental limits on collective enhancement rates.
• To explore new models beyond conventional superradiance.

Main Methods:

• Developed a symmetry-based theoretical framework.
• Derived a general upper bound on the average jump rate.
• Constructed a novel open quantum system model.

Main Results:

• Established a general upper bound for the average jump rate, defining thermodynamic speed limits.
• Identified specific symmetry conditions to achieve this bound.
• Demonstrated a model surpassing conventional superradiance enhancement.

Conclusions:

• Symmetry provides a powerful tool for understanding and optimizing finite-time thermodynamic processes.
• The derived framework offers a new perspective on collective enhancement in open quantum systems.
• This work paves the way for designing more efficient quantum heat engines and devices.