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MRI brain tumor segmentation using residual Spatial Pyramid Pooling-powered 3D U-Net

Datos Bibliográficos

ID22083706
AutoresSanchit Vijay (Vellore Institute of Technology University), Thejineaswar Guhan (0000-0002-8099-7183, Vellore Institute of Technology University), Kathiravan Srinivasan (0000-0002-9352-0237, Vellore Institute of Technology University), P M Durai Raj Vincent (0000-0002-7598-1363, Vellore Institute of Technology University), Chuan-Yu Chang (0000-0001-9476-8130, Industrial Technology Research Institute, autor de correspondencia)
Año2023
Volumen11
Páginas1091850-1091850
Fecha de publicación2023-02-02
Peer ReviewedSí
Open AccessSí
TipoARTICLE
RevistaFrontiers in Public Health (JOURNAL)
Identificadores de la revistaISSN: 2296-2565 • E-ISSN: 2296-2565
EditorialFrontiers Media SA (PUBLISHER • CH)
DOI10.3389/fpubh.2023.1091850
PMID36817919
OpenAlexW4318761526
IdiomaEN
Referencias citadas19

Brain tumor diagnosis has been a lengthy process, and automation of a process such as brain tumor segmentation speeds up the timeline. U-Nets have been a commonly used solution for semantic segmentation, and it uses a downsampling-upsampling approach to segment tumors. U-Nets rely on residual connections to pass information during upsampling; however, an upsampling block only receives information from one downsampling block. This restricts the context and scope of an upsampling block. In this paper, we propose SPP-U-Net where the residual connections are replaced with a combination of Spatial Pyramid Pooling (SPP) and Attention blocks. Here, SPP provides information from various downsampling blocks, which will increase the scope of reconstruction while attention provides the necessary context by incorporating local characteristics with their corresponding global dependencies. Existing literature uses heavy approaches such as the usage of nested and dense skip connections and transformers. These approaches increase the training parameters within the model which therefore increase the training time and complexity of the model. The proposed approach on the other hand attains comparable results to existing literature without changing the number of trainable parameters over larger dimensions such as 160 × 192 × 192. All in all, the proposed model scores an average dice score of 0.883 and a Hausdorff distance of 7.84 on Brats 2021 cross validation

Algorithm · Computer vision · Data mining · Machine learning · Pooling · Residual · Segmentation · Upsampling · Advanced Neural Network Applications · Brain Tumor Detection and Classification · Computer Science · Mathematics · Medical Image Segmentation Techniques · Artificial Intelligence

  • U-Net

    Open Access•Olaf Ronneberger, Philipp Fischer et al.•Medical Image Computing and…•2015

  • DeepLab

    Open Access•Liang-Chieh Chen, George Papandreou et al.•IEEE Transactions on Pattern…•2018

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