arrow
Return

Texture-Aware Ridgelet Transform and Machine Learning for Surface Roughness Prediction

delete2022-01-01
delete3
PRE
AI
C
Clayton Cooper
J
Jianjing Zhang
L
Liwen Hu
Y
Y. B. Guo
R
Robert X. Gao *
DOI:10.1109/TIM.2022.3214630delete
deleteOriginal
deleteOriginal request for help
deleteShare
deleteSave
Abstract

Abstract

En 中文
Quantification of machined surface roughness is critical to enabling estimation of part performance such as tribology and fatigue. As a contactless alternative to the traditional contact profilometry, photographic methods have been widely applied due to the advancement of image processing and ML techniques that allow the analysis of surface characteristics embedded in optical images and association of these characteristics with surface roughness. The state-of-the-art of photographic methods make extensive use of 2-D wavelet transform (WT) for image processing. However, a 2-D wavelet is often limited in capturing line patterns that are prevalent in the machined surface due to its radially symmetric nature, leading to suboptimal surface characterization. In addition, surface roughness prediction is primarily carried out as point prediction using ML methods which do not account for uncertainty in the models and data. To address these limitations, this study presents a ridgelet transform (RT)-based method for machined surface characterization. RT automatically detects the dominant line patterns, i.e., texture, in surface images and extracts topological features, such as the constituent spatial frequencies embedded in the surface profile along the direction that is most relevant for inducing surface roughness. The extracted texture-aware features are then used as inputs to random forest (RF) and kernel density estimation for surface roughness prediction and uncertainty quantification. Evaluation using experimental data shows that the developed method predicts surface roughness with an error of 0.5%, outperforming existing techniques and demonstrating the potential of RT as a viable technique for machined surface analysis.
Keywords:
Surface roughness
Rough surfaces
Surface waves
Optical surface waves
Surface treatment
Transforms
Surface texture
ML
machining
prediction
random forest (RF)
ridgelet
surface roughness
uncertainty analysis
wavelet

Journal

IEEE Transactions on Instrumentation and Measurement cover
IEEE Transactions on Instrumentation and Measurement
IF:
5.9
Papers:
1.9W
Citations:
5.8W

Organization

U
University System of Ohio
Scholars:
15.4W
Papers: 13.0W
Citations: 200
C
Case Western Reserve University
Scholars:
2.1W
Papers: 1.6W
Citations: 3.4W