Chronical Subdural Hematoma Segmentation Based on Computed Tomography Images Analysis

The aim of the demo is to show our developed system for chronical subdural hematoma segmentation based on analysis of computed tomography images. We used convolutional neural networks to automate the process of subdural hematoma segmentation from DCOM images got from computer tomography device and m...

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Main Authors: Alexey Kashevnik, Ekaterina Alekseeva, Mikhail Haleev, Andrey Kitenko, Ammar Yaser Ali, Konstantin Samochernikh, Konstantin Kukanov, Arkady Ivanov, Andrey Petrov
Format: Article
Language:English
Published: FRUCT 2023-05-01
Series:Proceedings of the XXth Conference of Open Innovations Association FRUCT
Subjects:
Online Access:https://www.fruct.org/publications/volume-33/acm33/files/zzKas.pdf
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author Alexey Kashevnik
Ekaterina Alekseeva
Mikhail Haleev
Andrey Kitenko
Ammar Yaser Ali
Konstantin Samochernikh
Konstantin Kukanov
Arkady Ivanov
Andrey Petrov
author_facet Alexey Kashevnik
Ekaterina Alekseeva
Mikhail Haleev
Andrey Kitenko
Ammar Yaser Ali
Konstantin Samochernikh
Konstantin Kukanov
Arkady Ivanov
Andrey Petrov
author_sort Alexey Kashevnik
collection DOAJ
description The aim of the demo is to show our developed system for chronical subdural hematoma segmentation based on analysis of computed tomography images. We used convolutional neural networks to automate the process of subdural hematoma segmentation from DCOM images got from computer tomography device and made a plugin for importing the masks to the OsiriX that one of the most famous DCOM viewer. A training dataset was assembled containing a total of 41 scans consisting of 3306 DCOM images. The presence or absence of subdural hematomas and their area was determined by the radiologist (ground truth). Two architectures are being tested: Unet and FPN (Feature Pyramid Network). For each architecture there are two training options were considered: (1) on separate images, when each image is considered as a separate unit; and (2) pseudo-3D, when images were viewed in blocks and the neural network could make predictions based on predictions for neighboring images. Our best model achieved an average DICE score of 0,7949 on the validation set. We integrated the pretrained model into OsiriX DICOM Viewer as a plugin. The plugin passes images to the model, which returns the segmentation predictions. The plugin converts them to ROI (region of interest) and transfers them to OsiriX, where, if necessary, the radiologist can edit them and get information about hematoma characteristics (such as volume).
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spelling doaj.art-6df30fbbcfe04be9a4486ec6b0a597f42023-06-09T11:41:51ZengFRUCTProceedings of the XXth Conference of Open Innovations Association FRUCT2305-72542343-07372023-05-0133242142110.5281/zenodo.8005397Chronical Subdural Hematoma Segmentation Based on Computed Tomography Images AnalysisAlexey Kashevnik0Ekaterina Alekseeva1Mikhail Haleev2Andrey Kitenko3Ammar Yaser Ali4Konstantin Samochernikh5Konstantin Kukanov6Arkady Ivanov7Andrey Petrov8SPIIRASITMO UniversityITMO UniversitySPC RASITMO UniversityAlmozov CenterAlmozov CenterAlmozov CenterAlmozov CenterThe aim of the demo is to show our developed system for chronical subdural hematoma segmentation based on analysis of computed tomography images. We used convolutional neural networks to automate the process of subdural hematoma segmentation from DCOM images got from computer tomography device and made a plugin for importing the masks to the OsiriX that one of the most famous DCOM viewer. A training dataset was assembled containing a total of 41 scans consisting of 3306 DCOM images. The presence or absence of subdural hematomas and their area was determined by the radiologist (ground truth). Two architectures are being tested: Unet and FPN (Feature Pyramid Network). For each architecture there are two training options were considered: (1) on separate images, when each image is considered as a separate unit; and (2) pseudo-3D, when images were viewed in blocks and the neural network could make predictions based on predictions for neighboring images. Our best model achieved an average DICE score of 0,7949 on the validation set. We integrated the pretrained model into OsiriX DICOM Viewer as a plugin. The plugin passes images to the model, which returns the segmentation predictions. The plugin converts them to ROI (region of interest) and transfers them to OsiriX, where, if necessary, the radiologist can edit them and get information about hematoma characteristics (such as volume).https://www.fruct.org/publications/volume-33/acm33/files/zzKas.pdfcomputer vision medical application chronical subdural hematoma segmentation
spellingShingle Alexey Kashevnik
Ekaterina Alekseeva
Mikhail Haleev
Andrey Kitenko
Ammar Yaser Ali
Konstantin Samochernikh
Konstantin Kukanov
Arkady Ivanov
Andrey Petrov
Chronical Subdural Hematoma Segmentation Based on Computed Tomography Images Analysis
Proceedings of the XXth Conference of Open Innovations Association FRUCT
computer vision medical application chronical subdural hematoma segmentation
title Chronical Subdural Hematoma Segmentation Based on Computed Tomography Images Analysis
title_full Chronical Subdural Hematoma Segmentation Based on Computed Tomography Images Analysis
title_fullStr Chronical Subdural Hematoma Segmentation Based on Computed Tomography Images Analysis
title_full_unstemmed Chronical Subdural Hematoma Segmentation Based on Computed Tomography Images Analysis
title_short Chronical Subdural Hematoma Segmentation Based on Computed Tomography Images Analysis
title_sort chronical subdural hematoma segmentation based on computed tomography images analysis
topic computer vision medical application chronical subdural hematoma segmentation
url https://www.fruct.org/publications/volume-33/acm33/files/zzKas.pdf
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