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  5. Analysis, Segmentation and Prediction of Knee Cartilage using Statistical Shape Models
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Analysis, Segmentation and Prediction of Knee Cartilage using Statistical Shape Models

Date Issued
December 1, 2013
Author(s)
Johnson, Joseph Michael  
Advisor(s)
Mohamed R. Mahfouz
Additional Advisor(s)
William Hamel
Richard Komistek
Aly Fathy
Permanent URI
https://trace.tennessee.edu/handle/20.500.14382/23620
Abstract

Osteoarthritis (OA) of the knee is one of the leading causes of chronic disability (along with the hip). Due to rising healthcare costs associated with OA, it is important to fully understand the disease and how it progresses in the knee. One symptom of knee OA is the degeneration of cartilage in the articulating knee. The cartilage pad plays a major role in painting the biomechanical picture of the knee. This work attempts to quantify the cartilage thickness of healthy male and female knees using statistical shape models (SSMs) for a deep knee bend activity. Additionally, novel cartilage segmentation from magnetic resonance imaging (MRI) and estimation algorithms from computer tomography (CT) or x-rays are proposed to facilitate the efficient development and accurate analysis of future treatments related to the knee. Cartilage morphology results suggest distinct patterns of wear in varus, valgus, and neutral degenerative knees, and examination of contact regions during the deep knee bend activity further emphasizes these patterns. Segmentation results were achieved that were comparable if not of higher quality than existing state-of-the-art techniques for both femoral and tibial cartilage. Likewise, using the point correspondence properties of SSMs, estimation of articulating cartilage was effective in healthy and degenerative knees. In conclusion, this work provides novel, clinically relevant morphological data to compute segmentation and estimate new data in such a way to potentially contribute to improving results and efficiency in evaluation of the femorotibial cartilage layer.

Subjects

Cartilage

osteoarthritis

knee

segmentation

computer vision

Disciplines
Biomechanics and Biotransport
Biomedical
Other Biomedical Engineering and Bioengineering
Signal Processing
Degree
Doctor of Philosophy
Major
Biomedical Engineering
Embargo Date
December 15, 2014
File(s)
Thumbnail Image
Name

RRR_V7Dissertation_Draft_Template_MJJ_FINAL.docx

Size

30.38 MB

Format

Microsoft Word XML

Checksum (MD5)

fab9d4d2377121be8f8460958b41c1f4

Thumbnail Image
Name

RRR_V8Dissertation_Draft_Template_MJJ_FINAL.pdf

Size

5.72 MB

Format

Adobe PDF

Checksum (MD5)

a3b52d8a35d2da458bea38a92550d631


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