利用电子束沉积技术合成基于氧化铪的薄膜结构

IF 0.8 Q3 Engineering
B. S. Shvetsov, A. N. Matsukatova, M. N. Martyshov, D. M. Zhigunov, A. S. Ilyin, T. P. Savchuk, P. A. Forsh, P. K. Kashkarov
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引用次数: 0

摘要

氧化铪目前被认为是最有前途的金属氧化物材料之一,可用于制造记忆结构。忆阻器结构在许多科技领域都有应用,例如,在它们的帮助下,神经形态计算系统中突触的生物仿真成为可能。忆阻器工业应用的一个重要障碍是电阻开关的可变性。忆阻器结构中的非均匀性可以成为控制电阻开关的重要工具。因此,在这项研究中,通过电子束沉积法合成了基于金属-绝缘体-金属夹层结构的氧化铪忆阻器,从而有可能制造出非化学计量薄膜。根据上电极的材料和氧化铪层的厚度,研究了电阻开关的效果。通过确定合成参数,实现了主要记忆特性之间的平衡。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Electron-Beam Deposition for the Synthesis of Memristive Structures Based on Hafnium Oxide

Electron-Beam Deposition for the Synthesis of Memristive Structures Based on Hafnium Oxide

Electron-Beam Deposition for the Synthesis of Memristive Structures Based on Hafnium Oxide

Нafnium oxide is currently considered one of the most promising metal-oxide materials for creating memristive structures. Memristive structures find their application in many areas of science and technology; for example, with their help, the biosimilar emulation of synapses in neuromorphic computing systems is possible. One of the important obstacles  to the industrial use of memristors is the variability of resistive switching. Nonstoichiometry in memristor structure can be an important tool for controlling resistive switching. Therefore, in this work, memristors based on hafnium oxide in a metal–insulator–metal sandwich structure are synthesized by electron-beam deposition, which makes it possible to create nonstoichiometric films. The effect of resistive switching is studied depending on the material of the upper electrode and the thickness of the hafnium-oxide layer. The synthesis parameters are determined to achieve a balance between the main memristive characteristics.

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来源期刊
Nanotechnologies in Russia
Nanotechnologies in Russia NANOSCIENCE & NANOTECHNOLOGY-
CiteScore
1.20
自引率
0.00%
发文量
0
期刊介绍: Nanobiotechnology Reports publishes interdisciplinary research articles on fundamental aspects of the structure and properties of nanoscale objects and nanomaterials, polymeric and bioorganic molecules, and supramolecular and biohybrid complexes, as well as articles that discuss technologies for their preparation and processing, and practical implementation of products, devices, and nature-like systems based on them. The journal publishes original articles and reviews that meet the highest scientific quality standards in the following areas of science and technology studies: self-organizing structures and nanoassemblies; nanostructures, including nanotubes; functional and structural nanomaterials; polymeric, bioorganic, and hybrid nanomaterials; devices and products based on nanomaterials and nanotechnology; nanobiology and genetics, and omics technologies; nanobiomedicine and nanopharmaceutics; nanoelectronics and neuromorphic computing systems; neurocognitive systems and technologies; nanophotonics; natural science methods in a study of cultural heritage items; metrology, standardization, and monitoring in nanotechnology.
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