Thermodynamic Limits of Energy Harvesting from Outgoing Thermal Radiation

Abstract

We derive the thermodynamic limits of harvesting power from the outgoing thermal radiation from the ambient to the cold outer space. The derivations are based on a duality relation between thermal engines that harvest solar radiation and those that harvest outgoing thermal radiation. In particular, we derive the ultimate limit for harvesting outgoing thermal radiation, which is analogous to the Landersberg limit for solar energy harvesting, and show that the ultimate limit far exceeds what was previously thought to be possible. As an extension of our work, we also derive the ultimate limit of efficiency of thermophotovoltatic systems.

6 figures

References in corpus (2)

• Universal trade-off relation between power and efficiency for heat engines
• Entropic and Near-Field Improvements of Thermoradiative Cells

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