Brain Tumor Segmentation from Multi-Spectral MRI Records: Classical Machine Learning or Convolutional Neural Networks?

Brain tumor segmentation, which involves identifying distinct components like the enhancing core and edema, is a crucial task for ensuring accurate diagnoses and optimizing radiotherapy planning or post-intervention monitoring. However, this process is highly challenging due to the variability in lesion appearances, the potential for noise interference, and differences in MRI scanner sensitivity. This paper represents a comparative study in which XGBoost, the ultimate classical machine learning based method competes with U-net, a well established convolutional network architecture, both being assisted with the adequate preprocessing so that they can achieve their close-to-optimal solution. Training and testing are performed under the very same conditions: a seven-fold cross validation scenario using predefined but random groups of the 259 high-grade glioma records of the BraTS 2019 training dataset. Thorough numerical evaluation suites revealed the superiority of the U-net based solution with respect to a great majority of the statistical accuracy benchmarks. The most relevant quality indicator, namely the average Dice score, is approximately 2% higher for the U-net when segmenting edema, enhancing core or whole tumor, while there is no relevant difference between the two methods in the tumor core segmentation problem.

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Published
2025-04-09
DOI
https://doi.org/10.1109/iccc64928.2025.10999145
Primary Topic
Brain Tumor Detection and Classification
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article
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article

Brain Tumor Segmentation from Multi-Spectral MRI Records: Classical Machine Learning or Convolutional Neural Networks?

Szabolcs Csaholczi, László Szilágyi, Levente Kovács
Brain Tumor Detection and Classification
article

Brain Tumor Segmentation from Multi-Spectral MRI Records: Classical Machine Learning or Convolutional Neural Networks?

Szabolcs Csaholczi, László Szilágyi, Levente Kovács
article en

Abstract

Brain tumor segmentation, which involves identifying distinct components like the enhancing core and edema, is a crucial task for ensuring accurate diagnoses and optimizing radiotherapy planning or post-intervention monitoring. However, this process is highly challenging due to the variability in lesion appearances, the potential for noise interference, and differences in MRI scanner sensitivity. This paper represents a comparative study in which XGBoost, the ultimate classical machine learning based method competes with U-net, a well established convolutional network architecture, both being assisted with the adequate preprocessing so that they can achieve their close-to-optimal solution. Training and testing are performed under the very same conditions: a seven-fold cross validation scenario using predefined but random groups of the 259 high-grade glioma records of the BraTS 2019 training dataset. Thorough numerical evaluation suites revealed the superiority of the U-net based solution with respect to a great majority of the statistical accuracy benchmarks. The most relevant quality indicator, namely the average Dice score, is approximately 2% higher for the U-net when segmenting edema, enhancing core or whole tumor, while there is no relevant difference between the two methods in the tumor core segmentation problem.

Obuda University (HU), Sapientia Hungarian University of Transylvania (RO)
Openalex Percentile: Top 86%
Brain Tumor Detection and Classification
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