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Can Thermodynamic Behavior of Alice's Particle Affect Bob's Particle?
Ali Soltanmanesh1,2, Hamid Reza Naeij3, Afshin Shafiee4
1Research Group on Foundations of Quantum Theory and Information, Department of Chemistry, Sharif University of Technology, P.O.Box 11365-9516, Tehran, Iran. soltanmanesh@ch.sharif.edu.
Scientific Reports
|June 5, 2020
Summary
This study explores quantum thermodynamics, showing that entangled particles influence each other
Area of Science:
- Quantum Physics
- Thermodynamics
- Quantum Information
Background:
- Entangled particles exhibit non-local correlations.
- Thermodynamics typically applies to macroscopic systems.
- Investigating quantum thermodynamics bridges these fields.
Purpose of the Study:
- To investigate long-distance thermodynamic relationships between entangled particles.
- To analyze heat transfer and ergotropy in open quantum systems.
- To determine if quantum correlations impact distant thermodynamic behavior.
Main Methods:
- Proposed an experiment with spin-1/2 particles in a singlet state.
- Utilized three setups involving heat baths and spatial separation.
- Applied quantum thermodynamics principles (ergotropy, adiabatic work, operational heat).
Main Results:
- Heat transfer between entangled particles is interdependent.
- Quantum correlations significantly affect the thermodynamic behavior of distant particles.
- Demonstrated non-local thermodynamic influence in quantum systems.
Conclusions:
- Quantum entanglement establishes thermodynamic connections between spatially separated particles.
- The study confirms that quantum correlations have tangible thermodynamic consequences.
- This research opens avenues for exploring quantum effects in thermodynamics.
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