This paper examines the capabilities of Silver-based Self-Directed-Channel (S-SDC) memristors as artificial synapses in energy-efficient and biologically-inspired computing systems. These memristors stand out for their programmable resistance modulation, which is crucial for neural network circuits and addresses key challenges in AI hardware, such as the von Neumann bottleneck. The research focuses on the conductivity manipulation in S-SDC memristors through silver cation migration, exploring various conducting states and their temporal fluctuations. This analysis uncovers a spectrum of conductance states unique to S-SDC memristors, with enhanced programmability particularly evident in lower conductivity states, facilitating precise resistance adjustments. Additionally, the study assesses the influence of migration-induced fluctuations on the overall reliability of these devices. The paper advocates for integrating S-SDC memristors into neuromorphic computing architectures, highlighting their ability to balance computational efficiency with energy sustainability. The memristors' distinct features, including controllable conductivity, adaptability in programming, and stability, are underscored as key contributors to the evolution of neuromorphic computing.
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