Axion-Radiation Conversion by Super and Normal Conductors
Aiichi Iwazaki

TL;DR
This paper proposes a method for detecting dark matter axions using superconductors, demonstrating that superconductors produce significantly higher electromagnetic radiation flux than normal conductors, enhancing detection sensitivity.
Contribution
It introduces a novel axion detection technique utilizing superconductors and provides a detailed comparison showing increased radiation flux compared to normal conductors.
Findings
Superconductors produce a hundred times larger radiation flux than normal conductors.
Superconducting resonant cavities generate twice the radiation energy of normal cavities.
Electric field in superconductors is identical to that in vacuum, confined to the surface due to Meissner effect.
Abstract
We have proposed a method for the detection of dark matter axion. It uses superconductor under strong magnetic field. As is well known, the dark matter axion induces oscillating electric field under magnetic field. The electric field is proportional to the magnetic field and makes charged particles oscillate in conductors. Then, radiations of electromagnetic fields are produced. Radiation flux depends on how large the electric field is induced and how large the number of charged particles is present in the conductors. We show that the electric field in superconductor is essentially identical to the one induced in vacuum. It is proportional to the magnetic field. It is only present in the surface because of Meissner effect. On the other hand, although the magnetic field can penetrates the normal conductor, the oscillating electric field is only present in the surface of the conductor…
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