A Concept of Linear Thermal Circulator Based on Coriolis forces
arXiv:1412.6183 · doi:10.1103/PhysRevE.91.020101
Abstract
We show that the presence of a Coriolis force in a rotating linear lattice imposes a non-reciprocal propagation of the phononic heat carriers. Using this effect we propose the concept of Coriolis linear thermal circulator which can control the circulation of a heat current. A simple model of three coupled harmonic masses on a rotating platform allow us to demonstrate giant circulating rectification effects for moderate values of the angular velocities of the platform.
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Cited by in corpus (5)
- Persistent Directional Current at Equilibrium in Nonreciprocal Many-Body Near Field Electromagnetic Heat Transfer
- Topological Angular Momentum and Radiative Heat Transport in Closed Orbits
- Topological Materials for Near-Field Radiative Heat Transfer
- Design algorithms of driving-induced nonreciprocal components
- Low-Temperature Linear Thermal Rectifiers Based on Coriolis forces