Abstract

Multiple Sclerosis (MS) is the most common neurodegenerative disease among young adults. Diagnosis and progress monitoring of MS is performed by the aid of T2-weighted or T2 FLAIR magnetic resonance imaging, where MS lesions appear as hyperintense spots in the white matter. In recent years, multiple algorithms have been proposed to detect these lesions with varying results. In this work, a fully automatic method that does not rely on a priori anatomical information is proposed and evaluated. The proposed algorithm is based on an over-segmentation in superpixels and their classification by means of Gauss-Markov Measure Fields (GMMF). The main advantage of the over-segmentation is that it preserves the borders between tissues and may also reduce the execution time, while the GMMF classifier is robust to noise and also computationally efficient. The proposed segmentation is then applied in two stages: first to segment the brain region and then to detect hyperintense spots within the brain. The proposed method is evaluated with synthetic images from BrainWeb, as well as real images from MS patients. The proposed method produces competitive results without requiring user assistance nor anatomical prior information.

Keywords:
Segmentation Artificial intelligence Multiple sclerosis Pattern recognition (psychology) Fluid-attenuated inversion recovery Computer science Probabilistic logic Conditional random field Markov random field Image segmentation A priori and a posteriori Magnetic resonance imaging Medicine Radiology

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Topics

Image Processing Techniques and Applications
Physical Sciences →  Engineering →  Media Technology
Medical Image Segmentation Techniques
Physical Sciences →  Computer Science →  Computer Vision and Pattern Recognition
Multiple Sclerosis Research Studies
Health Sciences →  Medicine →  Pathology and Forensic Medicine
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