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Basic Cells for Reconfigurable Superconducting Kinemonics.

Created on 12 Aug 2026

Authors

Anastasia A Maksimovskaya, Vsevolod I Ruzhickiy, Sergey V Bakurskiy, Andrey E Schegolev, Maxim V Tereshonok, Nikolay V Klenov, Igor I Soloviev

Published in

Nanomaterials (Basel, Switzerland). Volume 16. Issue 15. Jul 30, 2026. Epub Jul 30, 2026.

Abstract

In all-Josephson-junction (all-JJ) logic, cell area is determined by the size of Josephson junctions, enabling intrinsically compact layouts. Tunable kinetic inductance offers a route to add circuit reconfigurability, pushing further scaling within the same all-JJ framework. In this work we present a set of basic cells for reconfigurable superconducting "kinemonics" that exploit tunable kinetic inductances of a multilayer nanostructure to realise multiple logic functions within a single compact circuit. We then combine these gates into a universal programmable logic cell consisting of only four reconfigurable gates supplemented by a single tunable kinetic-inductance key and demonstrate that it can realise all sixteen two-input Boolean functions, making it an analogue of a look-up table with in-hardware reconfigurability. We also discuss how the same principle can be used in superconducting neuromorphic circuits, where tunable kinetic inductance controls routing, coincidence detection, inhibition, and delay for soliton-like spikes in neuron-like elements.

PMID:
42584333
Bibliographic data and abstract were imported from PubMed on 12 Aug 2026.

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