Radiative heat transfer in 2D Dirac materials
arXiv:1410.4387 · doi:10.1088/0953-8984/27/21/214019
Abstract
We compute the radiative heat transfer between two sheets of 2D Dirac materials, including topological Chern insulators and graphene, within the framework of the local approximation for the optical response of these materials. In this approximation, which neglects spatial dispersion, we derive both numerically and analytically the short-distance asymptotic of the near-field heat transfer in these systems, and show that it scales as the inverse of the distance between the two sheets. Finally, we discuss the limitations to the validity of this scaling law imposed by spatial dispersion in 2D Dirac materials.
15 pages, 4 figures. Updated version including corrected analysis of the far-field regime
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Cited by in corpus (16)
- Near-field Radiative Heat Transfer in Many-Body Systems
- Ultrafast Radiative Heat Transfer
- Limits to the Optical Response of Graphene and 2D Materials
- Topological Angular Momentum and Radiative Heat Transport in Closed Orbits
- Smart thermal management with near-field thermal radiation
- Caroli formula in near-field heat transfer between parallel graphene sheets
- Near-field thermal transport between twisted bilayer graphene
- Heat transfer statistics in extreme-near-field radiation
- First-principles method to study near-field radiative heat transfer
- Topological Materials for Near-Field Radiative Heat Transfer
- Role of disorder in plasmon-assisted near-field heat transfer between two-dimensional metals
- Super-Planckian radiative heat transfer between coplanar two-dimensional metals
- Thermal transfer enhancement by hydrodynamic plasmons in electron bilayers
- Radiative Heat Transfer and 2D Transition Metal Dichalcogenide Materials
- Generalized first-principles method to study near-field heat transfer mediated by Coulomb interaction
- Graphene-based enhancement of near-field radiative-heat-transfer rectification