Perspective: Entropy-stabilized oxide memristors

A memristor array has emerged as a potential computing hardware for artificial intelligence (AI). It has an inherent memory effect that allows information storage in the form of easily programmable electrical conductance, making it suitable for efficient data processing without shuttling of data between the processor and memory. To realize its full potential for AI applications, fine-tuning of internal device dynamics is required to implement a network system that employs dynamic functions. Here, we provide a perspective on multicationic entropy-stabilized oxides as a widely tunable materials system for memristor applications. We highlight the potential for efficient data processing in machine learning tasks enabled by the implementation of “task specific” neural networks that derive from this material tunability.

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Publication Details

Journal
Applied Physics Letters
Published
2024-08-12
DOI
https://doi.org/10.1063/5.0216429
Citations
2
Primary Topic
Advanced Memory and Neural Computing
Type
article
Field-Weighted Citation Impact
0.42

Funders

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article

Perspective: Entropy-stabilized oxide memristors

Emmanouil Kioupakis, John T. Heron, Wei Lü, Sieun Chae et al.
2 citations
Applied Physics Letters
Advanced Memory and Neural Computing
0.42
article

Perspective: Entropy-stabilized oxide memristors

Emmanouil Kioupakis, John T. Heron, Wei Lü, Sieun Chae, Sangmin Yoo
article en
2 citations

Abstract

A memristor array has emerged as a potential computing hardware for artificial intelligence (AI). It has an inherent memory effect that allows information storage in the form of easily programmable electrical conductance, making it suitable for efficient data processing without shuttling of data between the processor and memory. To realize its full potential for AI applications, fine-tuning of internal device dynamics is required to implement a network system that employs dynamic functions. Here, we provide a perspective on multicationic entropy-stabilized oxides as a widely tunable materials system for memristor applications. We highlight the potential for efficient data processing in machine learning tasks enabled by the implementation of “task specific” neural networks that derive from this material tunability.

Applied Physics LettersVol. 125(7)
Oregon State University (US), University of Michigan (US)
National Science Foundation
Affordable and clean energy
Openalex Percentile: Top 39%
Advanced Memory and Neural Computing
0.42
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