Resistance Switching in ZnO-Based Memristors with a p-n Junction

碩士 === 國立東華大學 === 物理學系 === 105 === Resistance switching in ZnO-based memristive devices with a p-n junction has been investigated. Sputtering was performed to prepare devices with layered structures as Ti/ZnO/p+-Si. Programming strategies were developed in terms of using different operation modes, i...

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Main Authors: Qiao-Meng Tan, 陳俏蒙
Other Authors: Yue-Lin Huang
Format: Others
Published: 2017
Online Access:http://ndltd.ncl.edu.tw/handle/d3gz7g
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spelling ndltd-TW-105NDHU51980122018-05-15T04:32:02Z http://ndltd.ncl.edu.tw/handle/d3gz7g Resistance Switching in ZnO-Based Memristors with a p-n Junction 氧化鋅製成含p-n結憶阻結構之電阻轉換 Qiao-Meng Tan 陳俏蒙 碩士 國立東華大學 物理學系 105 Resistance switching in ZnO-based memristive devices with a p-n junction has been investigated. Sputtering was performed to prepare devices with layered structures as Ti/ZnO/p+-Si. Programming strategies were developed in terms of using different operation modes, including voltage sweep mode, current sweep mode, and single-pulse mode. The single-pulse mode was found to suppress the multiplicity of the readout resistance levels as compared with the voltage/voltage sweep modes. Furthermore, current compliance was found to significantly affect the device stability during repeated switching operations. Conduction processes leading to the resistive switching were examined for the low-resistance and high-resistance states, conforming the mechanisms dominated by space charge limited current (SCLC) and Poole-Frenkel (PL) trap-associated processes respectively. Instability and device failures were attributed to structural imperfections resulting from preparations. Yue-Lin Huang 黃玉林 2017 學位論文 ; thesis 41
collection NDLTD
format Others
sources NDLTD
description 碩士 === 國立東華大學 === 物理學系 === 105 === Resistance switching in ZnO-based memristive devices with a p-n junction has been investigated. Sputtering was performed to prepare devices with layered structures as Ti/ZnO/p+-Si. Programming strategies were developed in terms of using different operation modes, including voltage sweep mode, current sweep mode, and single-pulse mode. The single-pulse mode was found to suppress the multiplicity of the readout resistance levels as compared with the voltage/voltage sweep modes. Furthermore, current compliance was found to significantly affect the device stability during repeated switching operations. Conduction processes leading to the resistive switching were examined for the low-resistance and high-resistance states, conforming the mechanisms dominated by space charge limited current (SCLC) and Poole-Frenkel (PL) trap-associated processes respectively. Instability and device failures were attributed to structural imperfections resulting from preparations.
author2 Yue-Lin Huang
author_facet Yue-Lin Huang
Qiao-Meng Tan
陳俏蒙
author Qiao-Meng Tan
陳俏蒙
spellingShingle Qiao-Meng Tan
陳俏蒙
Resistance Switching in ZnO-Based Memristors with a p-n Junction
author_sort Qiao-Meng Tan
title Resistance Switching in ZnO-Based Memristors with a p-n Junction
title_short Resistance Switching in ZnO-Based Memristors with a p-n Junction
title_full Resistance Switching in ZnO-Based Memristors with a p-n Junction
title_fullStr Resistance Switching in ZnO-Based Memristors with a p-n Junction
title_full_unstemmed Resistance Switching in ZnO-Based Memristors with a p-n Junction
title_sort resistance switching in zno-based memristors with a p-n junction
publishDate 2017
url http://ndltd.ncl.edu.tw/handle/d3gz7g
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