Adiabatic Thermal Radiation Pumps for Thermal Photonics
arXiv:1906.00305 · doi:10.1103/PhysRevLett.123.165901
Abstract
We control the direction and magnitude of thermal radiation, between two bodies at equal temperature (in thermal equilibrium), by invoking the concept of adiabatic pumping. Specifically, within a resonant near-field electromagnetic heat transfer framework, we utilize an {\it instantaneous} scattering matrix approach to unveil the critical role of wave interference in radiative heat transfer. We find that appropriately designed adiabatic pumping cycling near diabolic singularities can dramatically enhance the efficiency of the directional energy transfer. We confirm our results using a realistic electronic circuit set-up.
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- Observation of Geometric Heat Pump Effect in Periodic Driven Thermal Diffusion
- Enhancement of synthetic magnetic field induced nonreciprocity via bound states in continuum in dissipatively coupled systems
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- Heat transfer mediated by the Berry-phase in non-reciprocal many-body systems
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- Simulating a Catalyst induced Quantum Dynamical Phase Transition of a Heyrovsky reaction with different models for the environment
- Fluctuation-induced currents in suspended graphene nanoribbons: Adiabatic quantum pumping approach
- Gain-loss-engineering: a new platform for extreme anisotropic thermal photon tunneling