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Beilstein J. Nanotechnol. 2026, 17, 122–138, doi:10.3762/bjnano.17.8
Figure 1: Cross-sectional diagram of a two-junction SQUID containing three superconducting layers (M1, M2, an...
Figure 2: Schematics of test C-shaped SQUIDs. Gray color indicates the superconducting ground plane (layer M1...
Figure 3: Comparison of calculated Lcalc and experimental Lexp self-inductances for two-junction SQUIDs shown...
Figure 4: Comparison of calculated Lcalc vs experimental Lexp self-inductances (a, b) and calculated Mcalc vs...
Figure 5: Microphotographs of investigated (a) sigma and (b) Gauss neurons. Figures show neuron's Josephson j...
Figure 6: Comparison of calculated (Lcalc and Mcalc) and experimental (Lexp and Mexp) values of self- (a) and...
Figure 7: Mutual inductance dependence on the Δy variable part length for the test SQUID sample presented in Figure 2b...
Figure 8: Dependence of (a) the allocated memory and (b) the execution time on the number of meshing points f...
Figure 9: Dependence of calculated self- (a) and mutual (b) inductances of the test two-junction interferomet...
Figure 10: Results of OpenMP multithreading testing as applied to the simulation of the second partial loop of...
Figure 11: Dependence of self- and mutual inductances of the test SQUID (see Figure 2b) on the size of the superconduct...
Figure 12: Comparison of the experimental (black dots) and the approximated (solid red curve) TFs of the sigma...
Figure 13: a) A principal scheme of inductance measurements. “B”, “C”, and “F” are current sources. Crosses in...
Figure 14: Schematic representation of a sigma neuron and examples of its partial loops (see details in text)....
Figure 15: Schematic representation of a Gauss neuron (a) and one of its partial loops (b) (see details in tex...