Curing degree determines the final quality of CFRP components
while curing degree online monitoring is significant for guiding the curing process control of aerospace-grade composite components. Aiming at the actual demand for curing aircraft composite components with high-quality and high-efficiency
a curing degree monitoring method based on the reconstruction of heat dissipation characteristics is proposed
which implements the accurate and non-destructive online monitoring of CFRP components curing degree. According to the time-domain distribution characteristics of the difference between the input energy and the overall thermal energy change
the overall heat dissipation is reconstructed in real time so that the curing degree is directly monitored online. The effectiveness of the proposed method is verified by finite element simulation and actual curing experiments. The results show that the calculation error of the curing degree is 2.3% in the numerical simulation model and 5.0% in the actual curing experiments.
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Related Author
QU Zhengtao
ZHAO Cong
AN Luling
LIU Zhitong
LUO Zhongbing
JIN Shijie
QIAN Hengkui
LIU Zhenhao
Related Institution
Nanjing University of Aeromautics and Astronautics
NDT & E Laboratory, Dalian University of Technology
Key Lab of High Performance Electromagnetic Window for Aviation Science and Technology, AVIC Research Institute for Special Structures of Aeronautical Composites
Advanced Research Institute of Multidisciplinary Science, Beijing Institute of Technology
School of Materials Science & Engineering, Beijing Institute of Technology