Chip-Type Sensors for Die-Casting Process Monitoring

IF 1.8
Mako Tanaka;Yoshihito Kawamura;Shinobu Satonaka;Makiko Kobayashi
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Abstract

The demand for light metals has been increasing in an effort to achieve a decarbonized society. Die casting is widely used for processing light metals; however, it has the problem of low yield. In this study, we propose a chip-type sensor that can be attached to a die to diagnose defective products during the die casting process. Unlike buffer-rod type sensors, the chip-type sensor can be mounted in a minimally invasive manner without couplant. In this experiment, a chip-type sensor attached to a temporary mold was heated to $400~^{\circ }$ C, the highest temperature attainable on the mold surface, by die-casting a light metal, and then cooled to room temperature. The results showed that the chip-type sensor received larger reflected waves from the mold bottom at $400~^{\circ }$ C and room temperature after cooling, and that the ultrasonic transmission increased at the interface with the mold. This study shows that the chip sensor is an innovative sensor with excellent high-temperature characteristics.
用于压铸过程监控的芯片型传感器
为了实现低碳社会,对轻金属的需求一直在增加。压铸广泛用于加工轻金属;但是,它存在着产量低的问题。在这项研究中,我们提出了一种芯片型传感器,可以附着在模具上,以诊断压铸过程中的缺陷产品。与缓冲棒型传感器不同,芯片型传感器可以在没有耦合器的情况下以微创方式安装。在本实验中,通过压铸轻金属,将附着在临时模具上的芯片型传感器加热到模具表面可达到的最高温度$400~^{\circ}$ C,然后冷却到室温。结果表明:冷却后,在$400~^{\circ}$ C和室温下,芯片式传感器接收到来自模具底部的较大反射波,并且在与模具的界面处超声波透射增大;研究表明,该芯片传感器是一种具有优异高温特性的新型传感器。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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