“…Quantum Maxwell's demons, quantum engines, fine thermometry experiments, measurement of entropy production were implemented on a wide range of experimental platforms: ion traps [27][28][29], single electron transistors [30], quantum photonics [31], Nitrogen-Vacancy centers [32,33], Rydberg atoms [34], superconducting circuits [35][36][37][38][39], Nuclear Magnetic Resonance [40], cold atoms [41,42], levitated nanoparticles [43], SiN membranes [44], including prototypes of quantum processors [45]... All experiments require an exquisite control of quantum systems over environmental perturbations, since most of them were actually designed for quantum technologies -a first important step to bridge the gap with quantum thermodynamics. In this spirit, there have already been a few attempts to analyze the energetics of quantum computing [46], single quantum gates or circuits [31,[47][48][49], the relation between noise and performances in quantum amplifiers [50] and communication channels [51], the thermodynamic cost of quantum operations [52], and quantum measurements [53], thermodynamic analyzes of quantum error correcting codes [54], or adiabatic computing [55,56]. But how to turn these punctual interactions into a macroscopic and impactful synergy?…”