Can nothing be a superconductor and a superfluid?
M. N. Chernodub

TL;DR
The paper proposes that extremely strong magnetic fields can induce a superconducting and superfluid state in the vacuum, driven by quark-antiquark pair condensation, with potential implications for QCD phase diagrams.
Contribution
It introduces a novel concept that strong magnetic fields can turn empty space into a superconductor and superfluid, based on quark dynamics and meson condensation.
Findings
Vacuum becomes superconducting at magnetic fields ~10^{16} Tesla.
Formation of charged rho meson condensates leads to anisotropic superconductivity.
Superconductivity persists at high temperatures around 10^{12} K.
Abstract
A superconductor is a material that conducts electric current with no resistance. Superconductivity and magnetism are known to be antagonistic phenomena: superconductors expel weak external magnetic field (the Meissner effect) while a sufficiently strong magnetic field, in general, destroys superconductivity. In a seemingly contradictory statement, we show that a very strong magnetic field can turn an empty space into a superconductor. The external magnetic field required for this effect should be about 10^{16} Tesla (eB ~ 1 GeV^2). The physical mechanism of the exotic vacuum superconductivity is as follows: in strong magnetic field the dynamics of virtual quarks and antiquarks is effectively one-dimensional because these electrically charged particles tend to move along the lines of the magnetic field. In one spatial dimension a gluon-mediated attraction between a quark and an…
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