A model equating the temperature-dependent phase shift to the difference in kinetic inductances of wide and narrow semirings in asymmetric aluminum rings, enabled by differing critical temperatures, explains the observed critical current maxima shifts and resolves prior experimental contradictions.
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3 Pith papers cite this work. Polarity classification is still indexing.
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Pith papers citing it
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cond-mat.supr-con 3years
2026 3verdicts
UNVERDICTED 3representative citing papers
Narrower quasi-1D aluminum structures exhibit lower critical temperatures and current densities than wider ones, with switching currents matching Kupriyanov-Lukichev theory at low T and Josephson SNS behavior near Tc.
Experimental switching currents in aluminum two-width quasi-1D structures are nonlocal and persist in high magnetic fields, radically differing from Ginzburg-Landau theory predictions and challenging known descriptions.
citing papers explorer
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Shift of the maxima of the critical currents of different polarity relative to the zero magnetic flux along the flux axis in a superconducting asymmetric aluminum ring
A model equating the temperature-dependent phase shift to the difference in kinetic inductances of wide and narrow semirings in asymmetric aluminum rings, enabled by differing critical temperatures, explains the observed critical current maxima shifts and resolves prior experimental contradictions.
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Critical temperatures and critical currents of wide and narrow quasi-one-dimensional superconducting aluminum structures in zero magnetic field
Narrower quasi-1D aluminum structures exhibit lower critical temperatures and current densities than wider ones, with switching currents matching Kupriyanov-Lukichev theory at low T and Josephson SNS behavior near Tc.
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Unusual critical currents in quasi-one-dimensional superconducting aluminum two-width structures in a magnetic field
Experimental switching currents in aluminum two-width quasi-1D structures are nonlocal and persist in high magnetic fields, radically differing from Ginzburg-Landau theory predictions and challenging known descriptions.