Circuit Modeling of Parasitic Effects in Combined Memristor-Diode Crossbar Arrays for Neuromorphic Devices

The mechanisms of parasitic effects in combined memristor-diode arrays of logic and memory matrices within a neuroprocessor are described. To assess the impact of parasitic effects on the output signal waveform and cell states, circuit models of the matrices are developed by incorporating parasitic elements, known memristor models, and Zener diode models into LTspice. Numerical simulations demonstrate that in both matrices, the primary contribution to signal propagation delays comes from RC circuits formed by the load resistance, parasitic cell capacitance, and substrate capacitance. The nonlinear increase in signal propagation delay is shown to depend on the crossbar array dimensionality and memristor size. Compensation methods for parasitic effects are proposed, including modifications to the encoding scheme and reduction of the memristor dimensions to 100 nm.

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Publication Details

Journal
Nanobiotechnology Reports
Published
2025-04-01
DOI
https://doi.org/10.1134/s2635167624602705
Primary Topic
Advanced Memory and Neural Computing
Type
article
Field-Weighted Citation Impact
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article

Circuit Modeling of Parasitic Effects in Combined Memristor-Diode Crossbar Arrays for Neuromorphic Devices

Alexander N. Busygin, S. Yu. Udovichenko, Alexander A. Neustroev
Nanobiotechnology Reports
Advanced Memory and Neural Computing
article

Circuit Modeling of Parasitic Effects in Combined Memristor-Diode Crossbar Arrays for Neuromorphic Devices

Alexander N. Busygin, S. Yu. Udovichenko, Alexander A. Neustroev
article en

Abstract

The mechanisms of parasitic effects in combined memristor-diode arrays of logic and memory matrices within a neuroprocessor are described. To assess the impact of parasitic effects on the output signal waveform and cell states, circuit models of the matrices are developed by incorporating parasitic elements, known memristor models, and Zener diode models into LTspice. Numerical simulations demonstrate that in both matrices, the primary contribution to signal propagation delays comes from RC circuits formed by the load resistance, parasitic cell capacitance, and substrate capacitance. The nonlinear increase in signal propagation delay is shown to depend on the crossbar array dimensionality and memristor size. Compensation methods for parasitic effects are proposed, including modifications to the encoding scheme and reduction of the memristor dimensions to 100 nm.

Nanobiotechnology ReportsVol. 20(2)
University of Tyumen (RU)
Affordable and clean energy
Openalex Percentile: Top 84%
Advanced Memory and Neural Computing
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