Table 1 Presents the methods and limitations related to existing studies.
Article | Dataset size | Class of Ischemic stroke | Segmentation/classification method | Performance | limitation | Advantages |
|---|---|---|---|---|---|---|
Soltan et al23. | ⢠ISLES 2018 ⢠Training :94 scans, ⢠testing:62 scan | ⢠acute stroke | ⢠Parallel DNNâ+âpixel level classifier providing advantage of better learning with limited data ⢠Voting ⢠simple weighted averaging, logistic regression. | DSCâ=â71.3%% Recallâ=â73.6%% Volumetric Similarityâ=â82.1%, | ⢠Requires large number of parameters ⢠Limited data ⢠Computation cost missing | ⢠Control overfitting |
Luu-Ngoc Do. et al27. | ⢠71 patients | ⢠acute anterior circulation stroke | ⢠RRCNN | ⢠Accuracyâ=â87.3% ⢠Accuracy Method 2= 0.941 ⢠F1scoreâ=â0.888 | ⢠Low test Accuracy ⢠Region based approach Missing ⢠Limited to one class of Ischemic | ⢠Less training time 4 to 5 h as compared to 3DCNN |
kumar et al.25 | ⢠ISLES 2017 ⢠28 training and 36 testing ⢠ISLES 2015 | ⢠acute stroke | ⢠CS-Net(U-Net variance) | ⢠DCâ=â0.84â±â0.11 | ⢠Enough training time 18, 9.5, and 8 h for SISS 2015 SPES 2015 ⢠& ISLES 2017. ⢠Limited to one class of Ischemic |  |
[2]Yi-Chia Wei et al27. | ⢠216 patients with 4606 slices | ⢠lacune and non-lacune | SGD-net⢠| Accuracyâ=â0.806â0.828 | ⢠Limitation on small lesion detection ⢠Scattered lesion detection invisibility |  |
[3]De Vries L et al29. | ⢠ISLES 2018 | ⢠acute Ischemic Stroke | ⢠PerfU-Net |  | ⢠Require larger learning rate for training ⢠lack of ground truth penumbra segmentation ⢠posterior infarcts Missing |  |
[4] Hulin Kuang et al40. | ⢠AISD dataset | ⢠Acute Ischemic Strokeâ<â24 | ⢠Hybrid convolutional neural network (CNN) & Transformer network | DCâ=â61.39% | ⢠Small dataset |  |
[5]Xiyue Wang et al.43 | ⢠2836 ICH | ⢠5 Subtypes of ICH | ⢠CNN-RNN | ⢠Accuracyâ>â0.8 | ⢠Limited Number of subject belong to each class |  |