采用电磁感应技术快速加热/冷却模具表面

S.C. Chen, H. Peng, J.A. Chang, W. Jong
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引用次数: 12

摘要

本研究采用电磁感应加热技术实现模具表面快速加热。设计了单匝圆形线圈和螺旋线圈在扁钢模具上的感应加热实验。利用红外热像仪测量了感应加热过程中模具表面温度的分布。结合ANSYS的热分析模块和电磁分析模块,开发了仿真工具。通过实验验证了该方法的有效性和准确性。为了评估感应加热在实际注射成型中的实际应用效果,利用一个大致相当于手机外壳嵌入尺寸的模具,设计了四个冷却通道设计,并运行了12度的冷却剂进行了演示实验。感应加热3秒后,模具表面温度由110℃升高到180℃。模具表面冷却到110摄氏度还需要24秒。通过实验和仿真,成功地说明了采用感应技术可以快速加热和冷却模具表面温度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Rapid mold surface heating/cooling using electromagnetic induction technology
In this study, electromagnetic induction heating is developed to achieve a rapid mold surface heating. Both a single turn of circular coil and a spiral coil were properly designed for induction heating experiments on a flat steel mold plate. Mold surface temperature distribution during induction heating process was measured using infrared thermal image system. Simulation tool was also developed by integration of both thermal and electromagnetic analysis modules of ANSYS. The capability and accuracy of simulations on the induction heating were verified via experiments. To evaluate the practical purpose of induction heating on the real injection molding, a mold plate, roughly about an inset size of cellular phone housing, designed with four cooling channel design and running 12deg coolant were utilized for the demo experiment. After 3 seconds' induction heating, mold surface temperature increases from 110degC to 180degC. It takes another 24 seconds for mold surface to cool down to 110degC. The rapid heating and cooling of mold surface temperatures using induction technology was successfully illustrated via both experiments and simulations.
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