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Texture analysis of the 3D collagen network and automatic classification of the physiology of articular cartilage

Author

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  • Xiaojuan Duan
  • Jianping Wu
  • Benjamin Swift
  • Thomas Brett Kirk

Abstract

A close relationship has been found between the 3D collagen structure and physiological condition of articular cartilage (AC). Studying the 3D collagen network in AC offers a way to determine the condition of the cartilage. However, traditional qualitative studies are time consuming and subjective. This study aims to develop a computer vision-based classifier to automatically determine the condition of AC tissue based on the structural characteristics of the collagen network. Texture analysis was applied to quantitatively characterise the 3D collagen structure in normal (International Cartilage Repair Society, ICRS, grade 0), aged (ICRS grade 1) and osteoarthritic cartilages (ICRS grade 2). Principle component techniques and linear discriminant analysis were then used to classify the microstructural characteristics of the 3D collagen meshwork and the condition of the AC. The 3D collagen meshwork in the three physiological condition groups displayed distinctive characteristics. Texture analysis indicated a significant difference in the mean texture parameters of the 3D collagen network between groups. The principle component and linear discriminant analysis of the texture data allowed for the development of a classifier for identifying the physiological status of the AC with an expected prediction error of 4.23%. An automatic image analysis classifier has been developed to predict the physiological condition of AC (from ICRS grade 0 to 2) based on texture data from the 3D collagen network in the tissue.

Suggested Citation

  • Xiaojuan Duan & Jianping Wu & Benjamin Swift & Thomas Brett Kirk, 2015. "Texture analysis of the 3D collagen network and automatic classification of the physiology of articular cartilage," Computer Methods in Biomechanics and Biomedical Engineering, Taylor & Francis Journals, vol. 18(9), pages 931-943, July.
  • Handle: RePEc:taf:gcmbxx:v:18:y:2015:i:9:p:931-943
    DOI: 10.1080/10255842.2013.864284
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