Multidimensional Texture Characterization: On Analysis for Brain Tumor Tissues Using MRS and MRI
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- 作者：Deepa Subramaniam Nachimuthu (1)
Arunadevi Baladhandapani (1) - 关键词：Magnetic resonance spectroscopy ; Magnetic resonance imaging ; Multidimensional co ; occurrence matrices ; Feature extraction ; Extreme learning machine ; Particle swarm optimization
- 刊名：Journal of Digital Imaging
- 出版年：2014
- 出版时间：August 2014
- 年：2014
- 卷：27
- 期：4
- 页码：496-506
- 全文大小：1,191 KB
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Arunadevi Baladhandapani (1)
1. Department of EEE, Anna University -Regional Centre Coimbatore, Jothipuram, Coimbatore, 641047, India - ISSN：1618-727X
文摘
This paper investigates the efficacy of automated pattern recognition methods on magnetic resonance data with the objective of assisting radiologists in the clinical diagnosis of brain tissue tumors. In this paper, the sciences of magnetic resonance imaging (MRI) and magnetic resonance spectroscopy (MRS) are combined to improve the accuracy of the classifier, based on the multidimensional co-occurrence matrices to assess the detection of pathological tissues (tumor and edema), normal tissues (white matter -WM and gray matter -GM), and fluid (cerebrospinal fluid -CSF). The results show the ability of the classifier with iterative training to automatically and simultaneously recover tissue-specific spectral and structural patterns and achieve segmentation of tumor and edema and grading of high and low glioma tumor. Here, extreme learning machine -improved particle swarm optimization (ELM-IPSO) neural network classifier is trained with the feature descriptions in brain magnetic resonance (MR) spectra. This has the characteristics of varying the normal spectral pattern associated with tumor patterns along with imaging features. Validation was performed considering 35 clinical studies. The volumetric features extracted from the vectors of this matrix articulate some important elementary structures, which along with spectroscopic metabolite ratios discriminate the tumor grades and tissue classes. The quantitative 3D analysis reveals significant improvement in terms of global accuracy rate for automatic classification in brain tissues and discriminating pathological tumor tissue from structural healthy brain tissue.