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Nb and Mn Co-Modified Na(0.5)Bi(4.5)Ti(4)O(15) Bismuth-Layered Ceramics for High-Frequency Transducer Applications

Lead-free environmentally friendly piezoelectrical materials with enhanced piezoelectric properties are of great significance for high-resolution ultrasound imaging applications. In this paper, Na(0.5)Bi(4.5)Ti(3.86)Mn(0.06)Nb(0.08)O(15+y) (NBT-Nb-Mn) bismuth-layer-structured ceramics were prepared...

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Detalles Bibliográficos
Autores principales: Fan, Dongming, Niu, Huiyan, Liu, Kun, Sun, Xinhao, Wang, Husheng, Shi, Kefei, Mo, Wen, Jian, Zhishui, Wen, Li, Shen, Meng, Zhao, Tianlong, Fei, Chunlong, Chen, Yong
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9415184/
https://www.ncbi.nlm.nih.gov/pubmed/36014168
http://dx.doi.org/10.3390/mi13081246
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author Fan, Dongming
Niu, Huiyan
Liu, Kun
Sun, Xinhao
Wang, Husheng
Shi, Kefei
Mo, Wen
Jian, Zhishui
Wen, Li
Shen, Meng
Zhao, Tianlong
Fei, Chunlong
Chen, Yong
author_facet Fan, Dongming
Niu, Huiyan
Liu, Kun
Sun, Xinhao
Wang, Husheng
Shi, Kefei
Mo, Wen
Jian, Zhishui
Wen, Li
Shen, Meng
Zhao, Tianlong
Fei, Chunlong
Chen, Yong
author_sort Fan, Dongming
collection PubMed
description Lead-free environmentally friendly piezoelectrical materials with enhanced piezoelectric properties are of great significance for high-resolution ultrasound imaging applications. In this paper, Na(0.5)Bi(4.5)Ti(3.86)Mn(0.06)Nb(0.08)O(15+y) (NBT-Nb-Mn) bismuth-layer-structured ceramics were prepared by solid-phase synthesis. The crystallographic structure, micromorphology, and piezoelectrical and electromechanical properties of NBT-Nb-Mn ceramics were examined, showing their enhanced piezoelectricity (d(33) = 33 pC/N) and relatively high electromechanical coupling coefficient (k(t) = 0.4). The purpose of this article is to describe the development of single element ultrasonic transducers based on these piezoelectric ceramics. The as-prepared high-frequency tightly focused transducer (ƒ-number = 1.13) had an electromechanical coupling coefficient of 0.48. The center frequency was determined to be 37.4 MHz and the −6 dB bandwidth to be 47.2%. According to the B-mode imaging experiment of 25 μm tungsten wires, lateral resolution of the transducer was calculated as 56 μm. Additionally, the experimental results were highly correlated to the results simulated by COMSOL software. By scanning a coin, the imaging effect of the transducer was further evaluated, demonstrating the application advantages of the prepared transducer in the field of high-sensitivity ultrasound imaging.
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spelling pubmed-94151842022-08-27 Nb and Mn Co-Modified Na(0.5)Bi(4.5)Ti(4)O(15) Bismuth-Layered Ceramics for High-Frequency Transducer Applications Fan, Dongming Niu, Huiyan Liu, Kun Sun, Xinhao Wang, Husheng Shi, Kefei Mo, Wen Jian, Zhishui Wen, Li Shen, Meng Zhao, Tianlong Fei, Chunlong Chen, Yong Micromachines (Basel) Article Lead-free environmentally friendly piezoelectrical materials with enhanced piezoelectric properties are of great significance for high-resolution ultrasound imaging applications. In this paper, Na(0.5)Bi(4.5)Ti(3.86)Mn(0.06)Nb(0.08)O(15+y) (NBT-Nb-Mn) bismuth-layer-structured ceramics were prepared by solid-phase synthesis. The crystallographic structure, micromorphology, and piezoelectrical and electromechanical properties of NBT-Nb-Mn ceramics were examined, showing their enhanced piezoelectricity (d(33) = 33 pC/N) and relatively high electromechanical coupling coefficient (k(t) = 0.4). The purpose of this article is to describe the development of single element ultrasonic transducers based on these piezoelectric ceramics. The as-prepared high-frequency tightly focused transducer (ƒ-number = 1.13) had an electromechanical coupling coefficient of 0.48. The center frequency was determined to be 37.4 MHz and the −6 dB bandwidth to be 47.2%. According to the B-mode imaging experiment of 25 μm tungsten wires, lateral resolution of the transducer was calculated as 56 μm. Additionally, the experimental results were highly correlated to the results simulated by COMSOL software. By scanning a coin, the imaging effect of the transducer was further evaluated, demonstrating the application advantages of the prepared transducer in the field of high-sensitivity ultrasound imaging. MDPI 2022-08-02 /pmc/articles/PMC9415184/ /pubmed/36014168 http://dx.doi.org/10.3390/mi13081246 Text en © 2022 by the authors. https://creativecommons.org/licenses/by/4.0/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 (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Fan, Dongming
Niu, Huiyan
Liu, Kun
Sun, Xinhao
Wang, Husheng
Shi, Kefei
Mo, Wen
Jian, Zhishui
Wen, Li
Shen, Meng
Zhao, Tianlong
Fei, Chunlong
Chen, Yong
Nb and Mn Co-Modified Na(0.5)Bi(4.5)Ti(4)O(15) Bismuth-Layered Ceramics for High-Frequency Transducer Applications
title Nb and Mn Co-Modified Na(0.5)Bi(4.5)Ti(4)O(15) Bismuth-Layered Ceramics for High-Frequency Transducer Applications
title_full Nb and Mn Co-Modified Na(0.5)Bi(4.5)Ti(4)O(15) Bismuth-Layered Ceramics for High-Frequency Transducer Applications
title_fullStr Nb and Mn Co-Modified Na(0.5)Bi(4.5)Ti(4)O(15) Bismuth-Layered Ceramics for High-Frequency Transducer Applications
title_full_unstemmed Nb and Mn Co-Modified Na(0.5)Bi(4.5)Ti(4)O(15) Bismuth-Layered Ceramics for High-Frequency Transducer Applications
title_short Nb and Mn Co-Modified Na(0.5)Bi(4.5)Ti(4)O(15) Bismuth-Layered Ceramics for High-Frequency Transducer Applications
title_sort nb and mn co-modified na(0.5)bi(4.5)ti(4)o(15) bismuth-layered ceramics for high-frequency transducer applications
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9415184/
https://www.ncbi.nlm.nih.gov/pubmed/36014168
http://dx.doi.org/10.3390/mi13081246
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