利用红外热像仪显示注射成型过程中模具和零件的温度变化

K. Bula, L. Różański, Lidia Marciniak-Podsadna, Dawid Wróbel
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引用次数: 4

摘要

摘要:本文研究了红外相机在注塑分析中的应用,通过测量注塑件和注塑型腔的温度随注射周期的变化。模具有两个腔,不同的厚度(1和3毫米),和一个冷直接流道被使用。采用等规聚丙烯均聚物生产零件。模具温度设定为22°C,由冷水机控制。确定了5个测点:SP1、SP2(位于3mm型腔内)、SP3、SP4(位于1mm型腔内)和SP5围绕注塑浇口。我们的研究表明,最高温度在SP2点附近,最低温度在SP4点附近。结果表明,62次注射循环后,型腔温度仍不稳定,每一次注射循环后,型腔温度还会进一步升高。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The use of IR thermography to show the mold and part temperature evolution in injection molding
Abstract This study concerns the application of infrared camera for injection molding analysis by measuring temperatures of both injection molded parts and injection mold cavities in a function of injection cycles. The mold with two cavities, differing in thickness (1 and 3 mm), and a cold direct runner was used. Isotactic polypropylene homopolymer was utilized to produce parts. Mold temperature was set at 22°C and controlled by a water chiller. Five measuring points were determined: SP1, SP2 (placed in the 3 mm cavity), SP3, SP4 (located in the 1 mm cavity) and SP5 around an injection molding gate. Our investigations showed that the highest temperature is localized around SP2 point and the lowest at SP4. Also, it was proved that even after 62 injection molding cycles, temperatures of cavities were not stable, revealing their further increase with each cycle.
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