Cargando…

Enhanced Thermal Shock Resistance of High-Temperature Organic Adhesive by CF-SiCNWs Binary Phase Structure

The development of high-temperature organic adhesive for bonding ultra-high-temperature ceramics with excellent thermal shock resistance has important significance to thermal protection systems for high-temperature environment application. In this study, high-temperature organic adhesive (HTOA) with...

Descripción completa

Detalles Bibliográficos
Autores principales: Zhao, Tingyu, Zhong, Zhengxiang, Zhang, Xuanfeng, Liu, Jiangfeng, Wang, Wenfang, Wang, Bing, Liu, Li
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10488621/
https://www.ncbi.nlm.nih.gov/pubmed/37687673
http://dx.doi.org/10.3390/ma16175983
_version_ 1785103519333744640
author Zhao, Tingyu
Zhong, Zhengxiang
Zhang, Xuanfeng
Liu, Jiangfeng
Wang, Wenfang
Wang, Bing
Liu, Li
author_facet Zhao, Tingyu
Zhong, Zhengxiang
Zhang, Xuanfeng
Liu, Jiangfeng
Wang, Wenfang
Wang, Bing
Liu, Li
author_sort Zhao, Tingyu
collection PubMed
description The development of high-temperature organic adhesive for bonding ultra-high-temperature ceramics with excellent thermal shock resistance has important significance to thermal protection systems for high-temperature environment application. In this study, high-temperature organic adhesive (HTOA) with carbon-fiber-SiC nanowires (CF-SiCNWs) binary phase enhancement structure was prepared. The method is that the SiCNWs grow on the chopped carbon-fiber surface and in the matrix of modified HTOA during high-temperature heat treatment with the help of a catalyst by a tip-growth way and with a vapor–liquid–solid (V-L-S) growth pattern. The results showed that the CF-SiCNWs binary phase enhancement structure plays a significant role in improving thermal shock resistance of high-temperature organic adhesive. The retention rate of the joint bond strength for the bonding samples after 20 cycles of thermal shock testing reaches 39.19%, which is higher than for the ones without CF, whose retain rate is only 6.78%. The shear strength of the samples with the CF-SiCNWs binary phase enhancement structure was about 10% higher than for those without the enhancement structure after 20 cycles of thermal shock.
format Online
Article
Text
id pubmed-10488621
institution National Center for Biotechnology Information
language English
publishDate 2023
publisher MDPI
record_format MEDLINE/PubMed
spelling pubmed-104886212023-09-09 Enhanced Thermal Shock Resistance of High-Temperature Organic Adhesive by CF-SiCNWs Binary Phase Structure Zhao, Tingyu Zhong, Zhengxiang Zhang, Xuanfeng Liu, Jiangfeng Wang, Wenfang Wang, Bing Liu, Li Materials (Basel) Article The development of high-temperature organic adhesive for bonding ultra-high-temperature ceramics with excellent thermal shock resistance has important significance to thermal protection systems for high-temperature environment application. In this study, high-temperature organic adhesive (HTOA) with carbon-fiber-SiC nanowires (CF-SiCNWs) binary phase enhancement structure was prepared. The method is that the SiCNWs grow on the chopped carbon-fiber surface and in the matrix of modified HTOA during high-temperature heat treatment with the help of a catalyst by a tip-growth way and with a vapor–liquid–solid (V-L-S) growth pattern. The results showed that the CF-SiCNWs binary phase enhancement structure plays a significant role in improving thermal shock resistance of high-temperature organic adhesive. The retention rate of the joint bond strength for the bonding samples after 20 cycles of thermal shock testing reaches 39.19%, which is higher than for the ones without CF, whose retain rate is only 6.78%. The shear strength of the samples with the CF-SiCNWs binary phase enhancement structure was about 10% higher than for those without the enhancement structure after 20 cycles of thermal shock. MDPI 2023-08-31 /pmc/articles/PMC10488621/ /pubmed/37687673 http://dx.doi.org/10.3390/ma16175983 Text en © 2023 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
Zhao, Tingyu
Zhong, Zhengxiang
Zhang, Xuanfeng
Liu, Jiangfeng
Wang, Wenfang
Wang, Bing
Liu, Li
Enhanced Thermal Shock Resistance of High-Temperature Organic Adhesive by CF-SiCNWs Binary Phase Structure
title Enhanced Thermal Shock Resistance of High-Temperature Organic Adhesive by CF-SiCNWs Binary Phase Structure
title_full Enhanced Thermal Shock Resistance of High-Temperature Organic Adhesive by CF-SiCNWs Binary Phase Structure
title_fullStr Enhanced Thermal Shock Resistance of High-Temperature Organic Adhesive by CF-SiCNWs Binary Phase Structure
title_full_unstemmed Enhanced Thermal Shock Resistance of High-Temperature Organic Adhesive by CF-SiCNWs Binary Phase Structure
title_short Enhanced Thermal Shock Resistance of High-Temperature Organic Adhesive by CF-SiCNWs Binary Phase Structure
title_sort enhanced thermal shock resistance of high-temperature organic adhesive by cf-sicnws binary phase structure
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC10488621/
https://www.ncbi.nlm.nih.gov/pubmed/37687673
http://dx.doi.org/10.3390/ma16175983
work_keys_str_mv AT zhaotingyu enhancedthermalshockresistanceofhightemperatureorganicadhesivebycfsicnwsbinaryphasestructure
AT zhongzhengxiang enhancedthermalshockresistanceofhightemperatureorganicadhesivebycfsicnwsbinaryphasestructure
AT zhangxuanfeng enhancedthermalshockresistanceofhightemperatureorganicadhesivebycfsicnwsbinaryphasestructure
AT liujiangfeng enhancedthermalshockresistanceofhightemperatureorganicadhesivebycfsicnwsbinaryphasestructure
AT wangwenfang enhancedthermalshockresistanceofhightemperatureorganicadhesivebycfsicnwsbinaryphasestructure
AT wangbing enhancedthermalshockresistanceofhightemperatureorganicadhesivebycfsicnwsbinaryphasestructure
AT liuli enhancedthermalshockresistanceofhightemperatureorganicadhesivebycfsicnwsbinaryphasestructure