Effect of fibre arrangement on temperature field of CFRP induction heating

被引：1

作者：

Fu, Tianyu ^{[1
]}

Zhao, Hui ^{[2
]}

Yang, Ning ^{[3
]}

Zhu, Jun ^{[1
]}

Zhou, Shaodong ^{[1
]}

机构：

[1] Changzhou Coll Informat Technol, Dept Intelligent Equipment, Changzhou, Jiangsu, Peoples R China

[2] Harbin Univ Sci & Technol, Sch Automat, Harbin 150080, Peoples R China

[3] Shanxi Datong Univ, Sch Comp & Network Engn, Datong, Shanxi, Peoples R China

来源：

MATERIALS SCIENCE AND TECHNOLOGY | 2022年 / 38卷 / 18期

关键词：

Induction heating; CFRP; finite element analysis; temperature field distribution; fibre-ply structure; meso analysis model; vortex current; fiber bundles; COMPOSITES;

D O I：

10.1080/02670836.2022.2097766

中图分类号：

T [工业技术];

学科分类号：

08 ;

摘要：

Because the characteristics of carbon fibre composites (CFRP) are directly related to the arrangement of fibre bundles, changing the orientation of fibres generates a shift in temperature field distribution during material heating. As a result, a finite element meso analysis model of CFRP induction heating is developed based on the actual laying mode and equivalent electro-magnetic thermal characteristics, and the variation laws of vortex current, calorific value, and temperature field distribution in CFRP with various fibre arrangements are simulated to investigate the role of fibre laying mode in the induction heating process. Simultaneously, the induction heating experiment shows that the finite element model developed in this paper can accurately calculate the distribution of temperature field of various types of CFRP.

引用

页码：1636 / 1644

页数：9

共 50 条

[11] Numerical modelling of CFRP induction heating using temperature-dependent material properties
Lundstrom, Fredrik
Frogner, Kenneth
Andersson, Mats
COMPOSITES PART B-ENGINEERING, 2021, 220
[12] Numerical modelling of CFRP induction heating using temperature-dependent material properties
Lundström, Fredrik
Frogner, Kenneth
Andersson, Mats
Composites Part B: Engineering, 2021, 220
[13] An improved particle swarm fuzzy PID for adaptive control of temperature in CFRP induction heating
Liu, Meijun
Cheng, Liwei
Xu, Jiazhong
Zhang, Xiaobing
Zhang, Hao
PROCEEDINGS OF THE INSTITUTION OF MECHANICAL ENGINEERS PART B-JOURNAL OF ENGINEERING MANUFACTURE, 2024, 238 (04) : 500 - 513
[14] Optimal Arrangement of Implant Needles for Temperature Homogeneity in Magnetic Induction Heating for Tumor Treatment
Chao, Hsuan-Yi
Huang, Chi-Fang
2015 INTERNATIONAL WORKSHOP ON ANTENNA TECHNOLOGY (IWAT), 2015, : 389 - 391
[15] STUDY ON TEMPERATURE FIELD INDUCED IN HIGH FREQUENCY INDUCTION HEATING
H. Shen
Acta Metallurgica Sinica(English Letters), 2006, (03) : 190 - 196
[16] TEMPERATURE-FIELD WITHIN INDUCTION-HEATING ELEMENT
SLUZALEC, A
INTERNATIONAL JOURNAL OF ENGINEERING SCIENCE, 1988, 26 (03) : 285 - 291
[17] A numerical model to analyse the temperature distribution in cross-ply CFRP during induction heating
Lundstrom, Fredrik
Frogner, Kenneth
Andersson, Mats
COMPOSITES PART B-ENGINEERING, 2020, 202
[18] Influencing the induction heating of textilereinforced CFRP by laminate parameters
Becker S.
Mitschang P.
Zeitschrift Kunststofftechnik/Journal of Plastics Technology, 2019, 2019 (03): : 210 - 244
[19] Effect of Channel Heights on the Flow Field, Temperature Field, and Inclusion Removal in a Channel-type Induction Heating Tundish
Chen, Xi-qing
Xiao, Hong
Wang, Pu
Lan, Peng
Tang, Hai-yan
Zhang, Jia-quan
12TH INTERNATIONAL SYMPOSIUM ON HIGH-TEMPERATURE METALLURGICAL PROCESSING, 2022, : 501 - 512
[20] Numerical simulation of heavy rail end induction heating temperature field
Xu, Chunming
APPLIED SCIENCE, MATERIALS SCIENCE AND INFORMATION TECHNOLOGIES IN INDUSTRY, 2014, 513-517 : 3245 - 3248

← 1 2 3 4 5 →