ISCHEMIC STROKELESIONSEGMENTATIONFROM DIFFUSION-WEIGHTED MRI USINGDEEPENSEMBLE LEARNING

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dc.contributor.author HALDER, RATHIN
dc.date.accessioned 2025-12-04T09:28:29Z
dc.date.available 2025-12-04T09:28:29Z
dc.date.issued 2024-09
dc.identifier.uri http://dspace.mist.ac.bd:8080/xmlui/handle/123456789/1055
dc.description ISCHEMICSTROKELESIONSEGMENTATIONFROM DIFFUSION-WEIGHTEDMRIUSINGDEEPENSEMBLE LEARNING en_US
dc.description.abstract Strokes are a leading cause of premature mortality in developed and developing countries, and early treatment assistance can significantly prolong a patient’s life. How quickly the lesion is determined from MRI images is the primary rehabilitative step in stroke therapy. However, manual lesion identification takes time and is susceptible to both intra- and inter observer inconsistencies. Since manual lesion detection is highly time-consuming, it can negatively impact patient outcomes and overall experience. To aid in diagnosis, treatment planning, and analysis, medical image segmentation separates a medical image into indi vidual parts or segments, each corresponding to a particular anatomical structure or tissue, such as organs, lesions, or other areas of interest. In light of this, computerized estimation of the outcome of the ischemic stroke lesion can assist physicians in better evaluating the stroke and providing information on tissue outcomes. So, this will be an essential tool for assessing the extent of brain cell damage. Convolutional neural networks (CNN) have been extensively utilized in the categorization of abnormalities from brain images in recent years. So, this can be achieved by accurately classifying the characteristics of ischemic stroke le sions employing a convolutional neural network with convolutional layers. Consequently, to separate the Ischemia in the current study, a deep-learning network is employed in this thesis. The primary discovery of this work is the extraction of ischemic lesion character istics by utilizing the InceptionV3 network and the preservation of Z-axis information by employing a conventional 3D U-NET architecture. The proposed model was trained and tested using the ISLES-2017 dataset, and the experimental results obtained an overall seg mentation Dice Coefficient of 0.43. The results of this investigation show that the proposed technique is superior to earlier studies. en_US
dc.language.iso en en_US
dc.title ISCHEMIC STROKELESIONSEGMENTATIONFROM DIFFUSION-WEIGHTED MRI USINGDEEPENSEMBLE LEARNING en_US
dc.type Thesis en_US


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