TY - JOUR
T1 - Influence of composite material components on laser irradiation effects of resin-based composites
AU - Li, Mingzhe
AU - Jia, Xinyu
AU - Gao, Lihong
AU - Ma, Zhuang
AU - Zheng, Changbin
N1 - Publisher Copyright:
© 2025 Taiwan Institute of Chemical Engineers
PY - 2025/8
Y1 - 2025/8
N2 - Background: Resin-based composites with excellent properties are increasingly being utilized in laser environments, where the components of composites significantly influence the laser irradiation effects. Methods: This study investigates the influence of resin thermal stability and fiber type on the laser irradiation effects of resin-based composites under consistent laser parameters. The research results show the polyurethane-based composites, with the lowest thermal stability, exhibit the lowest back surface temperature under laser irradiation. In contrast, the boron phenolic-based composites, with the highest thermal stability, show the highest front and back surface temperatures. Moreover, quartz fiber-reinforced composites, with lower thermal conductivity, are more susceptible to penetration under laser irradiation compared to carbon fiber-reinforced composites with higher thermal conductivity. Significant findings: Therefore, the impact of different components on the laser irradiation performance of resin-based composites does not follow a single pattern. And the selection of appropriate material components should be based on specific requirements in practical applications. These studies bridge the knowledge gap on ablation mechanisms of diverse-structured composites under high-energy laser irradiation, offering crucial insights and theoretical backing to bolster the safety of resin-based composites in laser-heavy settings.
AB - Background: Resin-based composites with excellent properties are increasingly being utilized in laser environments, where the components of composites significantly influence the laser irradiation effects. Methods: This study investigates the influence of resin thermal stability and fiber type on the laser irradiation effects of resin-based composites under consistent laser parameters. The research results show the polyurethane-based composites, with the lowest thermal stability, exhibit the lowest back surface temperature under laser irradiation. In contrast, the boron phenolic-based composites, with the highest thermal stability, show the highest front and back surface temperatures. Moreover, quartz fiber-reinforced composites, with lower thermal conductivity, are more susceptible to penetration under laser irradiation compared to carbon fiber-reinforced composites with higher thermal conductivity. Significant findings: Therefore, the impact of different components on the laser irradiation performance of resin-based composites does not follow a single pattern. And the selection of appropriate material components should be based on specific requirements in practical applications. These studies bridge the knowledge gap on ablation mechanisms of diverse-structured composites under high-energy laser irradiation, offering crucial insights and theoretical backing to bolster the safety of resin-based composites in laser-heavy settings.
KW - Ablative mechanism
KW - Laser irradiation
KW - Material component
UR - http://www.scopus.com/inward/record.url?scp=105004260100&partnerID=8YFLogxK
U2 - 10.1016/j.jtice.2025.106176
DO - 10.1016/j.jtice.2025.106176
M3 - Article
AN - SCOPUS:105004260100
SN - 1876-1070
VL - 173
JO - Journal of the Taiwan Institute of Chemical Engineers
JF - Journal of the Taiwan Institute of Chemical Engineers
M1 - 106176
ER -