Boundary effects on Josephson current through one-dimensional Josephson junction arrays
Takeo Kato
DOI 10.1103/PhysRevB.65.132511 · Physical Review B
Active bibliographic source — not scientific approval
Bibliographic access preserves source history; it does not approve extracted materials or validate reported claims. Review warnings on each occurrence separately.
Abstract
Josephson junctions hybridized with an array of superconducting islands are studied. Assuming large on-site Coulomb interactions, a particle number and a Josephson critical current are calculated as functions of voltages of two leads based on a hard-core boson model, which is equivalent to a spin system with boundary fields. After the Wigner-Jordan transformation, an additional factor depending on the parity of the particle number appears at the boundary. This factor neglected in the previous issues crucially determines properties of the junction. The boundary effects due to this factor are discussed by studying resonant tunneling peaks in critical currents and phase dependence of Josephson currents.
Similar papers
Josephson and proximity effects on the surface of a topological insulator
similarity 0.89Takehito Yokoyama
Source status unknown — claims are unverified
Noise and microresonance of critical current in Josephson junction induced by Kondo trap states
similarity 0.89M. H. Ansari & F. K. Wilhelm
Source status unknown — claims are unverified
Quantum cavity modes in spatially extended Josephson systems
similarity 0.89M. V. Fistul & A. V. Ustinov
Source status unknown — claims are unverified
Fractionalization in Josephson junction arrays hinged by quantum spin Hall edges
similarity 0.89Cenke Xu & Liang Fu
Source status unknown — claims are unverified
d-wave pairing near the boundary of superconductors
similarity 0.89Xin-Zhong Yan
Source status unknown — claims are unverified
Josephson current through a superconductor/semiconductor-nanowire/superconductor junction: Effects of strong spin-orbit coupling and Zeeman splitting
similarity 0.89Meng Cheng & Roman M. Lutchyn
Source status unknown — claims are unverified