Investigating the Effects of Sulfur Treatment on Material Characteristics and Resistance Switching Device Applications with Supercritical Fluid Technique

A sulfur treatment based on the supercritical fluid (SCF) treatment is proposed and its effect on the silver (Ag)‐doped material and device is investigated. The sulfur treatment is achieved by mixing sulfur powder with carbon dioxide (CO 2 ) in a reaction chamber under high pressure (3000 psi) at lo...

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Veröffentlicht in:Physica status solidi. A, Applications and materials science Applications and materials science, 2023-10, Vol.220 (19)
Hauptverfasser: Huang, Jen-Wei, Chen, Po-Hsun, Yeh, Tsung-Han, Yang, Chih-Cheng
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Chen, Po-Hsun
Yeh, Tsung-Han
Yang, Chih-Cheng
description A sulfur treatment based on the supercritical fluid (SCF) treatment is proposed and its effect on the silver (Ag)‐doped material and device is investigated. The sulfur treatment is achieved by mixing sulfur powder with carbon dioxide (CO 2 ) in a reaction chamber under high pressure (3000 psi) at low reacting temperature (120 °C). Based on the experimental results, the SCF sulfur treatment can dramatically change the Ag‐doped SiO 2 (Ag:SiO 2 ) thin‐film characteristics, including surface morphology, crystallization, chemical bonding, and mole elements in accordance with the analyses of various materials. In addition, the SCF sulfur treatment is also applied to the Ag:SiO 2 ‐based device to verify the resistance switching (RS) properties. Based on electrical measurement results, the device with the SCF sulfur treatment exhibits better performance. The graduate RS behaviors also exhibit multilevel switching in both set and reset processes, which proves its possible applications of the proposed SCF sulfur treatment. In addition, the current fitting method is used to verify the RS properties to illustrate the carrier transportation characteristics of the Ag:SiO 2 ‐based device with the SCF sulfur treatment.
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The sulfur treatment is achieved by mixing sulfur powder with carbon dioxide (CO 2 ) in a reaction chamber under high pressure (3000 psi) at low reacting temperature (120 °C). Based on the experimental results, the SCF sulfur treatment can dramatically change the Ag‐doped SiO 2 (Ag:SiO 2 ) thin‐film characteristics, including surface morphology, crystallization, chemical bonding, and mole elements in accordance with the analyses of various materials. In addition, the SCF sulfur treatment is also applied to the Ag:SiO 2 ‐based device to verify the resistance switching (RS) properties. Based on electrical measurement results, the device with the SCF sulfur treatment exhibits better performance. The graduate RS behaviors also exhibit multilevel switching in both set and reset processes, which proves its possible applications of the proposed SCF sulfur treatment. 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A, Applications and materials science</title><description>A sulfur treatment based on the supercritical fluid (SCF) treatment is proposed and its effect on the silver (Ag)‐doped material and device is investigated. The sulfur treatment is achieved by mixing sulfur powder with carbon dioxide (CO 2 ) in a reaction chamber under high pressure (3000 psi) at low reacting temperature (120 °C). Based on the experimental results, the SCF sulfur treatment can dramatically change the Ag‐doped SiO 2 (Ag:SiO 2 ) thin‐film characteristics, including surface morphology, crystallization, chemical bonding, and mole elements in accordance with the analyses of various materials. In addition, the SCF sulfur treatment is also applied to the Ag:SiO 2 ‐based device to verify the resistance switching (RS) properties. Based on electrical measurement results, the device with the SCF sulfur treatment exhibits better performance. 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The sulfur treatment is achieved by mixing sulfur powder with carbon dioxide (CO 2 ) in a reaction chamber under high pressure (3000 psi) at low reacting temperature (120 °C). Based on the experimental results, the SCF sulfur treatment can dramatically change the Ag‐doped SiO 2 (Ag:SiO 2 ) thin‐film characteristics, including surface morphology, crystallization, chemical bonding, and mole elements in accordance with the analyses of various materials. In addition, the SCF sulfur treatment is also applied to the Ag:SiO 2 ‐based device to verify the resistance switching (RS) properties. Based on electrical measurement results, the device with the SCF sulfur treatment exhibits better performance. The graduate RS behaviors also exhibit multilevel switching in both set and reset processes, which proves its possible applications of the proposed SCF sulfur treatment. 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subjects Carbon dioxide
Chemical bonds
Crystallization
Electrical measurement
Silicon dioxide
Silver
Sulfur
Supercritical fluids
Switching
Thin films
title Investigating the Effects of Sulfur Treatment on Material Characteristics and Resistance Switching Device Applications with Supercritical Fluid Technique
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