Inline Control system for hot steel pipes basing on thermographic methods

G. Traxler, C. Wogerer
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Abstract

This paper will describe the distributed industrial inline application "broken roll detection", which is placed in a really harsh industrial environment, with all aspects from the sensing base to algorithm, implementation and technology. In a seamless steel tube production the pipe shells produced in the punch bench are running through many roller stands (3-roll system) to get the final dimension. If one of the rolls is broken, structural voids near the surface are the consequence. So finding the structure voids on the tube means to find broken rolls. Since pipe shells are hot (approximately 900degC) after passing the rolls, temperature distribution on its surface is different when voids happen. This gives a good base for detecting such voids by watching the surface temperature by sensing the radiation at wavelengths from 0,7 to 1.1 mum, which means that standard line scan cameras (3 times 2048 pixels, 10 kHz line rate) can be used. Images of up to 600 MB are the result for each imaged pipe shell. Evaluation of image data is done stepwise (in a pipeline) and on a separate channel for each camera with the objective to reduce data at each step. Images are detruncated, position-normalized, filtered, segmented and converted into object-descriptions that are sent to another PC for evaluating periodic occurrences. Once found such a periodic occurrence, the system signalizes it to the production line to stop the machine and repair the broken roll.
基于热成像方法的热钢管在线控制系统
本文将描述分布式工业内联应用“断辊检测”,它被放置在一个非常恶劣的工业环境中,从传感基础到算法、实现和技术的各个方面。在无缝钢管生产中,冲床上生产的管壳要经过许多辊架(三辊系统)才能得到最终尺寸。如果其中一卷卷坏了,就会造成表面附近的结构性空洞。因此,找到管子上的结构空洞意味着找到破损的轧辊。由于管壳在通过轧辊后是热的(大约900摄氏度),当发生空洞时,其表面的温度分布是不同的。这为检测这些空洞提供了一个很好的基础,通过检测波长从0.7到1.1 μ m的辐射来观察表面温度,这意味着可以使用标准的线扫描相机(3倍2048像素,10 kHz线率)。每个管道外壳的成像结果高达600 MB。图像数据的评估是逐步完成的(在管道中),并在每个相机的单独通道上进行,目的是在每个步骤中减少数据。图像被去截短、位置归一化、过滤、分割并转换为对象描述,这些对象描述被发送到另一台PC以评估周期性发生的情况。一旦发现这样的周期性发生,系统就会向生产线发出信号,停止机器并修理破损的轧辊。
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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