An Electromagnetic-Flux-Distribution Model for the Analyses of Superconducting Josephson Junction Circuits and Quantum Phase-Slip Junction Circuits
Yongliang Wang

TL;DR
This paper introduces an electromagnetic-flux-distribution model that unifies the analysis of superconducting Josephson junction circuits and quantum phase-slip junction circuits, highlighting their duality and common principles.
Contribution
It presents a novel unified model that redefines circuit laws using electric variables, bridging superconducting and non-superconducting circuit analysis, and derives duality relations.
Findings
Josephson junction circuits are magnetic-flux-distribution systems.
QPS junction circuits are electric-flux-distribution systems.
The model demonstrates the duality between Josephson and QPS circuits.
Abstract
Josephson junctions and the quantum phase-slip (QPS) junctions are two quantum circuit elements introduced by superconducting electronics to create various hybrid circuits. Josephson junctions bring the developments of superconducting quantum interference devices (SQUIDs) and single-flux quantum (SFQ) digital circuits; as the dual element of Josephson junctions, QPS junctions are used to design the new devices dual to Josephson junction circuits. In order to bridge the gap between superconducting and non-superconducting circuits, this article presents an electromagnetic-flux-distribution model to unify the superconducting and non-superconducting circuit analyses. This model redefines the circuit laws and functions of circuit elements using the conventional electric variables; it provides the unified circuit equations to depict the working principles of circuits viewed from electric and…
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