Quantum Thermodynamic Simulation of Heat and Work
How quantum thermodynamics is simulated: heat engines, work extraction and energy exchange in small quantum systems on classical and quantum computers.
How quantum thermodynamics is simulated: heat engines, work extraction and energy exchange in small quantum systems on classical and quantum computers.
How information and thermodynamics meet in quantum systems: work extraction, Maxwell’s demon, Landauer’s principle and quantum heat engines.
Quantum discord captures non-classical correlations that can exist even without entanglement. Its definition, measurement and possible uses.
Quantum relative entropy measures how distinguishable two states are and is never negative. Properties, uses and link to hypothesis testing.
Quantum thermodynamics asks how heat, work and entropy behave in quantum systems. Quantum engines, refrigerators, Maxwell’s demon and work extraction.
Quantum heat engines use quantum systems as working media. How they relate to the Carnot limit, the models studied and experiments.
Quantum mechanics in everyday technology and experiments: double slits, tunneling, spontaneous emission, lasers, cryptography and condensates.