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The Dielectric Constant of Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) Ceramics for Microwave Communication by Linear Regression Analysis

The electronics related to the fifth generation mobile communication technology (5G) are projected to possess significant market potential. High dielectric constant microwave ceramics used as filters and resonators in 5G have thus attracted great attention. The Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54...

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Autores principales: He, Tiancheng, Lv, Caihuan, Li, Wenhao, Huang, Guohua, Hu, Zhihui, Xu, Jianmei
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2020
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7765665/
https://www.ncbi.nlm.nih.gov/pubmed/33339159
http://dx.doi.org/10.3390/ma13245733
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author He, Tiancheng
Lv, Caihuan
Li, Wenhao
Huang, Guohua
Hu, Zhihui
Xu, Jianmei
author_facet He, Tiancheng
Lv, Caihuan
Li, Wenhao
Huang, Guohua
Hu, Zhihui
Xu, Jianmei
author_sort He, Tiancheng
collection PubMed
description The electronics related to the fifth generation mobile communication technology (5G) are projected to possess significant market potential. High dielectric constant microwave ceramics used as filters and resonators in 5G have thus attracted great attention. The Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) ceramic system has aroused people’s interest due to its underlying excellent microwave dielectric properties. In this paper, the relationships between the dielectric constant, Nd-doped content, sintering temperature and the density of Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) ceramics were studied. The linear regression equation was established by statistical product and service solution (SPSS) data analysis software, and the factors affecting the dielectric constant have been analyzed by using the enter and stepwise methods, respectively. It is found that the model established by the stepwise method is practically significant with Y = −71.168 + 6.946x(1) + 25.799x(3), where Y, x(1) and x(3) represent the dielectric constant, Nd content and the density, respectively. According to this model, the influence of density on the dielectric constant is greater than that of Nd doping concentration. We bring the linear regression analysis method into the research field of microwave dielectric ceramics, hoping to provide an instructive for the optimization of ceramic technology.
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spelling pubmed-77656652020-12-27 The Dielectric Constant of Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) Ceramics for Microwave Communication by Linear Regression Analysis He, Tiancheng Lv, Caihuan Li, Wenhao Huang, Guohua Hu, Zhihui Xu, Jianmei Materials (Basel) Article The electronics related to the fifth generation mobile communication technology (5G) are projected to possess significant market potential. High dielectric constant microwave ceramics used as filters and resonators in 5G have thus attracted great attention. The Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) ceramic system has aroused people’s interest due to its underlying excellent microwave dielectric properties. In this paper, the relationships between the dielectric constant, Nd-doped content, sintering temperature and the density of Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) ceramics were studied. The linear regression equation was established by statistical product and service solution (SPSS) data analysis software, and the factors affecting the dielectric constant have been analyzed by using the enter and stepwise methods, respectively. It is found that the model established by the stepwise method is practically significant with Y = −71.168 + 6.946x(1) + 25.799x(3), where Y, x(1) and x(3) represent the dielectric constant, Nd content and the density, respectively. According to this model, the influence of density on the dielectric constant is greater than that of Nd doping concentration. We bring the linear regression analysis method into the research field of microwave dielectric ceramics, hoping to provide an instructive for the optimization of ceramic technology. MDPI 2020-12-16 /pmc/articles/PMC7765665/ /pubmed/33339159 http://dx.doi.org/10.3390/ma13245733 Text en © 2020 by the authors. Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (http://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
He, Tiancheng
Lv, Caihuan
Li, Wenhao
Huang, Guohua
Hu, Zhihui
Xu, Jianmei
The Dielectric Constant of Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) Ceramics for Microwave Communication by Linear Regression Analysis
title The Dielectric Constant of Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) Ceramics for Microwave Communication by Linear Regression Analysis
title_full The Dielectric Constant of Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) Ceramics for Microwave Communication by Linear Regression Analysis
title_fullStr The Dielectric Constant of Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) Ceramics for Microwave Communication by Linear Regression Analysis
title_full_unstemmed The Dielectric Constant of Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) Ceramics for Microwave Communication by Linear Regression Analysis
title_short The Dielectric Constant of Ba(6−3x)(Sm(1−y)Nd(y))(8+2x)Ti(18)O(54) (x = 2/3) Ceramics for Microwave Communication by Linear Regression Analysis
title_sort dielectric constant of ba(6−3x)(sm(1−y)nd(y))(8+2x)ti(18)o(54) (x = 2/3) ceramics for microwave communication by linear regression analysis
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7765665/
https://www.ncbi.nlm.nih.gov/pubmed/33339159
http://dx.doi.org/10.3390/ma13245733
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