No-slip boundary conditions for electron hydrodynamics and the thermal Casimir pressure
arXiv:2104.00334 · doi:10.3390/universe7040108
Abstract
We derive modified reflection coefficients for electromagnetic waves in the THz and far infrared range. The idea is based on hydrodynamic boundary conditions for metallic conduction electrons. The temperature-dependent part of the Casimir pressure between metal plates is evaluated. The results should shed light on the "thermal anomaly" where measurements deviate from the standard fluctuation electrodynamics for conducting metals.
27 pages, 6 figures, v2 contains figure 1 replaced with experimental data
References in corpus (6)
- Entropic Accelerating Universe
- Surface-response functions obtained from equilibrium electron-density profiles
- An alternative response to the off-shell quantum fluctuations: A step forward in resolution of the Casimir puzzle
- How to confirm and exclude different models of material properties in the Casimir effect
- Recent measurements of the Casimir force: Comparison between experiment and theory
- Casimir and Casimir-Polder forces with dissipation from first principles
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