Effects of Parameters of Induction Heating Process on Bending Angle and Radius of 
Curvature of Q345 Steel

doi:10.3969/j.issn.1674-

0696.2017.11.20

Abstract

Abstract: Based on the finite element analysis software ANSYS and its APDL language, an electric-magnetic-heat-stress physic field coupling in the HFV (high frequency induction) heating formation was realized and a finite element model of three-dimensional mobile high frequency induction heating bending plate was established. The relationship between HFV bending plate forming targets and their process parameters was systematically studied. The results show that the steel plate bending angle increases first and then decreases with the increase of the heat source moving speed when the heating power is large; while, the bending angle decreases sharply with the increase of heat source moving speed when the heating power is relatively small. The radius of curvature of steel plate increases with the increase of heat source moving speed, and decreases with the increase of heating power. Finally, the function formula of the bending angle with the heating power and the heat source moving speed, and that of the curvature radius with the heating power and the heat source moving speed were established respectively.

Key words: ship engineering, FEM simulation, high frequency induction, bending plate formation, function formula

摘要： 基于ANSYS有限元分析软件，采用APDL语言实现高频感应加热成形中电-磁-热-力等多物理场耦合，建立了高频感应加热弯板的三维移动式有限元模型，并系统研究了高频感应加热弯板成形目标与工艺参数的关系。结果表明：加热功率较大时，钢板弯曲角度随着热源移动速度增加先增大再减小，而加热功率较小时钢板弯曲角度随着热源移动速度增加直线下降；钢板弯曲曲率半径随热源移动速度增加而增大,随加热功率增大而减小。最后分别建立了弯曲角度、曲率半径与加热功率和热源移动速度的函数关系式。

关键词: 船舶工程, 有限元模拟, 高频感应, 弯板成形, 函数关系

CLC Number:

ZHANG Jixiang1, 2, ZHOU Wei1, XU Yu1, ZHONG Li1, 2. Effects of Parameters of Induction Heating Process on Bending Angle and Radius of Curvature of Q345 Steel[J]. Journal of Chongqing Jiaotong University(Natural Science), 2017, 36(11): 106-110.

张继祥1，2，周伟1，徐昱1，钟厉1,2. 感应加热工艺参数对 Q345 钢弯曲角度和曲率半径的影响[J]. 重庆交通大学学报（自然科学版）, 2017, 36(11): 106-110.

References

［1］周宏，罗宇，蒋志勇．船舶板材边界条件对高频感应弯板成形的影响［J］．船海工程，2009，38(5)：19-23．
ZHOU Hong, LUO Yu, JIANG Zhiyong. Influence of boundary condition on high frequency inducting plate bending ［J］. Ship & Ocean
Engineering, 2009, 38(5): 19-23.
［2］纪卓尚，刘玉君，孙振烈，等．船体曲面钢板水火加工成型工艺的理论与应用研究［J］．中国造船，1998(增刊)：118-124．
JI Zhuoshang, LIU Yujun, SUN Zhenlie, et al. Study on theory and application for hull steel plate bending by line heating
［J］.Shipbuilding of China, 1998(Sup): 118-124.
［3］张雪彪．船体曲面钢板完全线加热成形研究［D］．大连：大连理工大学，2006．
ZHANG Xuebiao. Research on Ship-hull Curved Plate Forming by Pure Line Heating［D］.Dalian:Dalian University of Technology,2006.
［4］ BAE K Y, YANG Y S, HYUN C M, et al. Derivation of simplified formulas to predict deformations of plate in steel forming
process
with induction heating ［J］. International Journal of Machine Tools and Manufacture, 2008, 48(15): 1646-1652.
［5］ LEE J H, LEE K H, YUN J S. An electromagnetic and thermo-mechanical analysis of high frequency induction heating for steel
plate
bending［J］.Key Engineering Materials,2006,326/328:1283-1286.
［6］ JANG C D, KIM H K, HA Y S. Prediction of plate bending by high-frequency induction heating ［J］. Journal of Ship
Production,
2002, 18(4): 226-236.
［7］张继祥，殷筱依，刘凤芝，等．纤维增强薄壁塑件翘曲变形分析［J］．重庆交通大学学报(自然科学版)，2016，35(4)：173-178．
ZHANG Jixiang, YIN Xiaoyi, LIU Fengzhi et al. The analysis of the warpage of thin-wall plastic part for fiber reinforced plastic
［J］
. Journal of Chongqing Jiaotong University (Natural Science), 2016, 35(4): 173- 178.
［8］刘芳平，周建庭．变截面开口薄壁钢箱稳定性分析［J］．重庆交通大学学报(自然科学版)，2012，31(6)：1105-1108．
LIU Fangping, ZHOU Jianting. Stability analysis of open thin-walled steel box with variable cross-section［J］.Journal of
Chongqing
Jiaotong University (Natural Science), 2012, 31(6): 1105-1108.
［9］范平，陈明和，周兆峰，等．板料无模成形技术—热应力成形［J］．新技术新工艺，2007(11)：62-64．
FAN Ping, CHEN Minghe, ZHOU Zhaofeng, et al. Dieless thermal stress forming of plate ［J］. New Technology & New Process, 2007
(11):
62-64.
［10］张继祥，安国银，李政君，等．不同厚度下船舶板材高频感应自由弯曲成形［J］．重庆交通大学学报(自然科学版)，2012，31(4)：900-904
．
ZHANG Jixiang, AN Guoyin, LI Zhengjun et al. Free bending of ship plate of different thickness on high-frequency induction
［J］.Journal of Chongqing Jiaotong University(Natural Science),2012,31(4): 900- 904.
［11］安国银，张继祥，李政君，等．船板高频感应加热关键点变形规律研究［J］．船舶工程，2013，35(5)：87-89．
AN Guoyin, ZHANG Jixiang, LI Zhengjun, et al. Study of deformation law of key points on high-frequency induction heating for ship
plate ［J］. Ship Engineering, 2013, 35(5): 87-89.
［12］张雪彪，杨玉龙，刘玉君，等．钢板弯曲工艺中的高频感应加热过程数值分析［J］．中国造船，2011，52(2)：108-116．
ZHANG Xuebiao, YANG Yulong, LIU Yujun, et al. Process applied to steel plate bending technology［J］.Shipbuilding of China,2011,
52
(2): 108-116.
［13］张雪彪，杨玉龙，刘玉君．钢板高频感应加热过程电磁-热耦合场分析［J］．大连理工大学学报，2012，52(5)：676-682．
ZHANG Xuebiao, YANG Yulong, LIU Yujun. Analysis of electromagnetic - thermal coupling field for high frequency induction heating
process of steel plate ［J］. Journal of Dalian University of Technology, 2012, 52(5): 676-682.
［14］周宏，蒋志勇．表面换热系数对高频感应弯板成型的影响［J］．材料热处理学报，2013，34(增刊Ⅱ)：262-266．
ZHOU Hong, JIANG Zhiyong. Effect of high frequency induction technology-based model surface heat exchange coefficient on bending
plate
forming of ship hull ［J］. Transactions of Materials and Heat Treatment, 2013, 34(SupⅡ): 262-266.
［15］张继祥，徐昱，王智祥，等．钢板高频感应移动加热成形有限元建模及模拟研究［J］．锻压技术，2014，39(7)：40-46．
ZHANG Jixiang, XU Yu, WANG Zhixiang, et al. Finite element modeling and simulation research of high frequency induction heating
forming of steel plate based on moving heat source ［J］. Forging & Stamping Technology, 2014, 39(7): 40-46.
［16］张继祥，杨泮，刘凤芝，等．跟踪水冷下钢板高频感应三维移动加热成形有限元模型研究［J］．锻压技术，2015，40(7)：113-119．
ZHANG Jixiang, YANG Pan, LIU Fengzhi, et al. Research on finite element model of 3D mobile tracking water-cooling steel plate with
high frequency induction in the heating forming process with high frequency induction ［J］. Forging & Stamping Technology, 2015,
40
(7): 113-119.
［17］徐昱．三维移动式感应加热弯板成形有限元模拟研究［D］．重庆：重庆交通大学，2015．
XU Yu. Study on Finite Element Simulation of Three-Dimension Moving Inductive Heating Plate Bending Forming
［D］.Chongqing:Chongqing
Jiaotong University, 2015.

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Effects of Parameters of Induction Heating Process on Bending Angle and Radius of Curvature of Q345 Steel

感应加热工艺参数对 Q345 钢弯曲角度和曲率半径的影响

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