Thickness measurement by two-sided step-heating thermal imaging

Infrared thermal imaging is a promising nondestructive technique for thickness prediction. However, it is usually thought to be only appropriate for testing the thickness of thin objects or near-surface structures. In this study, we present a new two-sided step-heating thermal imaging method which e...

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Veröffentlicht in:Review of scientific instruments 2018-01, Vol.89 (1), p.014902-014902
Hauptverfasser: Li, Xiaoli, Tao, Ning, Sun, J. G., Zhang, Cunlin, Zhao, Yuejin
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Tao, Ning
Sun, J. G.
Zhang, Cunlin
Zhao, Yuejin
description Infrared thermal imaging is a promising nondestructive technique for thickness prediction. However, it is usually thought to be only appropriate for testing the thickness of thin objects or near-surface structures. In this study, we present a new two-sided step-heating thermal imaging method which employed a low-cost portable halogen lamp as the heating source and verified it with two stainless steel step wedges with thicknesses ranging from 5 mm to 24 mm. We first derived the one-dimensional step-heating thermography theory with the consideration of warm-up time of the lamp, and then applied the nonlinear regression method to fit the experimental data by the derived function to determine the thickness. After evaluating the reliability and accuracy of the experimental results, we concluded that this method is capable of testing thick objects. In addition, we provided the criterions for both the required data length and the applicable thickness range of the testing material. It is evident that this method will broaden the thermal imaging application for thickness measurement.
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subjects Heat detection
Infrared heating
Infrared imaging
Nondestructive testing
Reliability analysis
Scientific apparatus & instruments
Thermal imaging
Thermography
Thickness measurement
title Thickness measurement by two-sided step-heating thermal imaging
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