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High-stability solid solution perovskite (1-x) Bi(0.2)Sr(0.5)La(0.3)TiO(3)- xLaMnO(3) (0.05≤ × ≤0.2) for wide-temperature NTC thermistors

The development of negative temperature coefficient (NTC) thermistor materials with a wide range of operating temperatures, high resistance (R), low thermal content (B) and good stability is significant for improving the overall performance of NTC thermistors. Traditional NTC thermistors materials a...

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Autores principales: Liu, Ting, Yang, Guanghua, Ma, Juan, Zhang, Huimin, Zhang, Min, Chang, Aimin
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Frontiers Media S.A. 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10570411/
https://www.ncbi.nlm.nih.gov/pubmed/37841206
http://dx.doi.org/10.3389/fchem.2023.1275274
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author Liu, Ting
Yang, Guanghua
Ma, Juan
Zhang, Huimin
Zhang, Min
Chang, Aimin
author_facet Liu, Ting
Yang, Guanghua
Ma, Juan
Zhang, Huimin
Zhang, Min
Chang, Aimin
author_sort Liu, Ting
collection PubMed
description The development of negative temperature coefficient (NTC) thermistor materials with a wide range of operating temperatures, high resistance (R), low thermal content (B) and good stability is significant for improving the overall performance of NTC thermistors. Traditional NTC thermistors materials are of the spinel, however, their practical applications are commonly limited to temperatures below approximately 200°C.In this study, it was found that a novel perovskite-structured solid solution (1-x)Bi(0.2)Sr(0.5)La(0.3)TiO(3)-xLaMnO(3) (0.05 ≤ × ≤ 0.2) (BSLT-LM) showed good NTC performance from room temperature to high temperature (600°C) due to the stable structure at high temperatures. The ρ(25), ρ(100), ρ(600) and B(25/100), B(25/600) constants of Bi(0.2)Sr(0.5)La(0.3)TiO(3)-0.1LaMnO(3) NTC thermistors are approximately 1.76 × 10(8) Ω cm, 1.13 × 10(7) Ω cm, 9.89 × 10(2) Ω cm, 4063.91 K, 5472.34 K, respectively. The electrical conductivity of these solid solution refers to the electronic transition between Mn(3+) and Mn(4+), and oxygen vacancies. These results demonstrate the tremendous potential of perovskite-structured (1-x) Bi(0.3)Sr(0.5)La(0.2)TiO(3)-xLaMnO(3) thermistor ceramics with NTC performance.
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spelling pubmed-105704112023-10-14 High-stability solid solution perovskite (1-x) Bi(0.2)Sr(0.5)La(0.3)TiO(3)- xLaMnO(3) (0.05≤ × ≤0.2) for wide-temperature NTC thermistors Liu, Ting Yang, Guanghua Ma, Juan Zhang, Huimin Zhang, Min Chang, Aimin Front Chem Chemistry The development of negative temperature coefficient (NTC) thermistor materials with a wide range of operating temperatures, high resistance (R), low thermal content (B) and good stability is significant for improving the overall performance of NTC thermistors. Traditional NTC thermistors materials are of the spinel, however, their practical applications are commonly limited to temperatures below approximately 200°C.In this study, it was found that a novel perovskite-structured solid solution (1-x)Bi(0.2)Sr(0.5)La(0.3)TiO(3)-xLaMnO(3) (0.05 ≤ × ≤ 0.2) (BSLT-LM) showed good NTC performance from room temperature to high temperature (600°C) due to the stable structure at high temperatures. The ρ(25), ρ(100), ρ(600) and B(25/100), B(25/600) constants of Bi(0.2)Sr(0.5)La(0.3)TiO(3)-0.1LaMnO(3) NTC thermistors are approximately 1.76 × 10(8) Ω cm, 1.13 × 10(7) Ω cm, 9.89 × 10(2) Ω cm, 4063.91 K, 5472.34 K, respectively. The electrical conductivity of these solid solution refers to the electronic transition between Mn(3+) and Mn(4+), and oxygen vacancies. These results demonstrate the tremendous potential of perovskite-structured (1-x) Bi(0.3)Sr(0.5)La(0.2)TiO(3)-xLaMnO(3) thermistor ceramics with NTC performance. Frontiers Media S.A. 2023-09-29 /pmc/articles/PMC10570411/ /pubmed/37841206 http://dx.doi.org/10.3389/fchem.2023.1275274 Text en Copyright © 2023 Liu, Yang, Ma, Zhang, Zhang and Chang. https://creativecommons.org/licenses/by/4.0/This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
spellingShingle Chemistry
Liu, Ting
Yang, Guanghua
Ma, Juan
Zhang, Huimin
Zhang, Min
Chang, Aimin
High-stability solid solution perovskite (1-x) Bi(0.2)Sr(0.5)La(0.3)TiO(3)- xLaMnO(3) (0.05≤ × ≤0.2) for wide-temperature NTC thermistors
title High-stability solid solution perovskite (1-x) Bi(0.2)Sr(0.5)La(0.3)TiO(3)- xLaMnO(3) (0.05≤ × ≤0.2) for wide-temperature NTC thermistors
title_full High-stability solid solution perovskite (1-x) Bi(0.2)Sr(0.5)La(0.3)TiO(3)- xLaMnO(3) (0.05≤ × ≤0.2) for wide-temperature NTC thermistors
title_fullStr High-stability solid solution perovskite (1-x) Bi(0.2)Sr(0.5)La(0.3)TiO(3)- xLaMnO(3) (0.05≤ × ≤0.2) for wide-temperature NTC thermistors
title_full_unstemmed High-stability solid solution perovskite (1-x) Bi(0.2)Sr(0.5)La(0.3)TiO(3)- xLaMnO(3) (0.05≤ × ≤0.2) for wide-temperature NTC thermistors
title_short High-stability solid solution perovskite (1-x) Bi(0.2)Sr(0.5)La(0.3)TiO(3)- xLaMnO(3) (0.05≤ × ≤0.2) for wide-temperature NTC thermistors
title_sort high-stability solid solution perovskite (1-x) bi(0.2)sr(0.5)la(0.3)tio(3)- xlamno(3) (0.05≤ × ≤0.2) for wide-temperature ntc thermistors
topic Chemistry
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10570411/
https://www.ncbi.nlm.nih.gov/pubmed/37841206
http://dx.doi.org/10.3389/fchem.2023.1275274
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