Control of the Radiative Heat Transfer in a Pair of Rotating Nanostructures
arXiv:2303.01354 · doi:10.1103/PhysRevLett.130.133605
Abstract
The fluctuations of the electromagnetic field are at the origin of the near-field radiative heat transfer between nanostructures, as well as the Casimir forces and torques that they exert on each other. Here, working within the formalism of fluctuational electrodynamics, we investigate the simultaneous transfer of energy and angular momentum in a pair of rotating nanostructures. We demonstrate that, due to the rotation of the nanostructures, the radiative heat transfer between them can be increased, decreased, or even reversed with respect to the transfer that occurs in absence of rotation, which is solely determined by the difference in the temperature of the nanostructures. This work unravels the unintuitive phenomena arising from the simultaneous transfer of energy and angular momentum in pairs of rotating nanostructures.
9 pages, 4 figures
References in corpus (10)
- Rotational Quantum Friction
- Near-field induction heating of metallic nanoparticles due to infrared magnetic dipole contribution
- Radiative Heat Transfer in Anisotropic Many-Body Systems: Tuning and Enhancement
- Heat transfer between nanoparticles: Thermal conductance for near-field interactions
- A Scattering Approach to the Dynamical Casimir Effect
- Wading through the void: Exploring quantum friction and nonequilibrium fluctuations
- Near-Field Radiative Heat Transfer Eigenmodes
- Switching and amplifying three-body Casimir effects
- Quantum Vacuum Sagnac Effect
- Rotational synchronization of two non-contact nanoparticles
Cited by in corpus (6)
- Giant Enhancement of Vacuum Friction in Spinning YIG Nanospheres
- Thermal radiation forces on planar structures with asymmetric optical response
- Twist-induced near-field radiative thermal regulator assisted by cylindrical surface modes
- Thermal Radiation Force and Torque on Moving Nanostructures with Anisotropic Optical Response
- Casimir radiation with Weyl semimetals
- Tailoring the van der Waals interaction with rotation