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Explore how quantum processes function as thermodynamic resources in this one-hour lecture that examines the critical role of non-Markovianity in quantum thermodynamics. Delve into the fundamental principles governing quantum systems that retain memory of their past interactions, moving beyond the traditional Markovian approximation where systems lose all memory instantaneously. Investigate how non-Markovian quantum processes can be harnessed as valuable thermodynamic resources, potentially enabling enhanced energy extraction, improved heat engine performance, and novel quantum thermal machines. Learn about the theoretical framework connecting quantum information theory with thermodynamics, including concepts such as quantum coherence, entanglement, and information backflow in open quantum systems. Examine specific examples of non-Markovian dynamics and their practical implications for quantum technologies, including quantum batteries, refrigerators, and heat engines that exploit memory effects for superior performance compared to their Markovian counterparts.
