4 article(s) from Sidorenko, Anatoli S
- Full Research Paper
- Published 18 May 2022
-
PDF -
Album-
![]()
Figure 1: (a) Schematic illustration of a RBF network. (b) Schematic representation of a Gauss-neuron ensurin...
-
![]()
Figure 2: Transfer functions (normalized) and their main characteristics for the Gauss-neuron. (a, b) Familie...
-
![]()
Figure 3: (a) Amplitude of the transfer function and (b) its standard deviation from the Gaussian-like functi...
-
![]()
Figure 4: (a) Dynamic transfer function of a Gauss-neuron for a trapezoidal external signal for different val...
-
![]()
Figure 5: Sketch of the tunable kinetic inductance based on multilayer structure in the (a) closed and (b) op...
-
![]()
Figure 6: Spatial distribution of the pair amplitude F in the hybrid structures (a) S–FM1–s–FM2–s–FM1–s–FM2–N...
-
![]()
Figure 7: Kinetic inductance of the hybrid structures S–FM1–s–FM2–s–FM1–s–FM2–s–N and S–FM1–n–FM2–n–FM1–n–FM2...
-
- Full Research Paper
- Published 17 Aug 2021
-
PDF -
Album-
![]()
Figure 1: (a) SEM image of a micropatterned Nb/Co multilayer. The sample contains twelve contacts, six horizo...
-
![]()
Figure 2: Longitudinal magnetoresistances for a horizontal bridge at S2, measured at different T. (a) At the ...
-
![]()
Figure 3: (a) Magnetoresistance of a horizontal bridge on the S1 sample, T = 7.29 K. (b) FORC analysis of MR ...
-
- Full Research Paper
- Published 07 Sep 2020
-
PDF -
Album-
![]()
Figure 1: (a) Sketch of the investigated multilayer Co(1.5 nm)/Nb(6 nm)/Co(2.5 nm)/Nb(6 nm) structure. (b) Th...
-
![]()
Figure 2: (a) Pair amplitude, Δ, in a S(F1sF2s)x3F1 structure in different superconducting layers as a functi...
-
![]()
Figure 3: (a) Pair amplitude, Δ, in a S(F1sF2s)x3F1 structure in different superconducting layers as a functi...
-
![]()
Figure 4: A micrograph (a) and a principal scheme (b) of the structure used for the critical temperature meas...
-
![]()
Figure 5: Resistance as a function of the temperature (a) without an initial magnetization of the sample, at ...
-
![]()
Figure 6: (a) The output current, iout, of the inductive synapse versus the geometric inductance, lp, and the...
-
- Review
- Published 14 Dec 2017
-
PDF -
Album-
![]()
Figure 1: Voltage pulse on a Josephson junction corresponding to a SFQ transition and its mechanical analogy ...
-
![]()
Figure 2: Josephson transmission line. Josephson junctions are shown by crosses. Ib is the applied bias curre...
-
![]()
Figure 3: An RSFQ logic cell coupled to a clocking JTL. Ib is the applied bias current. Blue arrows present c...
-
![]()
Figure 4: RSFQ power supply scheme.
-
![]()
Figure 5: ERSFQ power supply scheme. Lb is the inductance limiting the bias current variation.
-
![]()
Figure 6: eSFQ power supply scheme. The dotted rectangle marks the decision-making pair.
-
![]()
Figure 7: Realization of a dc bias voltage source in RSFQ circuitry.
-
![]()
Figure 8: RQL ac power supply scheme. The blue arrow shows the SFQ current, violet arrows present magnetic co...
-
![]()
Figure 9: RQL transmission line with four-phase bias. Ib1,b2 are ac bias currents providing the power supply ...
-
![]()
Figure 10: Notional (left) and practical (right) schematic of a parametric quantron. The cell state is conditi...
-
![]()
Figure 11: Potential energy of a parametric quantron UPQ (Equation 2) (solid lines) and its terms: magnetic energy UM (d...
-
![]()
Figure 12: Logical state transfer in an array of magnetically coupled parametric quantrons under a driving cur...
-
![]()
Figure 13: nSQUID-based adiabatic data bus and RSFQ data bus. Blue arrows show circulating currents, orange ar...
-
![]()
Figure 14: Principal scheme of implementation of write and read operations in a circuit based on MJJ valve.
-
![]()
Figure 15: Cross section of an SF-NFS MJJ with CPRs of its parts shifted in phase by π. Arrows show F-layer ma...
-
![]()
Figure 16: Sketch of an orthogonal spin transfer (OST) device. Arrows show magnetization directions in the dev...
-
