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Systematic ReviewSystematic Review
Open Access

Diagnostic effectiveness of deep learning-based MRI in predicting multiple sclerosis: A meta-analysis

Tareef S. Daqqaq, Ayman S. Alhasan and Hadeel A. Ghunaim
Neurosciences Journal April 2024, 29 (2) 77-89; DOI: https://doi.org/10.17712/nsj.2024.2.20230103
Tareef S. Daqqaq
From the Department of Internal Medicine (Daqqaq, Alhasan, Ghunaim),College of Medicine, Taibah University, Madinah, and from Department of Radiology (Daqqaq), Prince Mohammed Bin Abdulaziz Hospital, Ministry of National Guard Health Affairs, and from the Department of Radiology (Alhasan), King Faisal Specialist Hospital and Research Center, Madinah, Kingdom of Saudi Arabia.
MBBS, Facharzt
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  • For correspondence: [email protected]
Ayman S. Alhasan
From the Department of Internal Medicine (Daqqaq, Alhasan, Ghunaim),College of Medicine, Taibah University, Madinah, and from Department of Radiology (Daqqaq), Prince Mohammed Bin Abdulaziz Hospital, Ministry of National Guard Health Affairs, and from the Department of Radiology (Alhasan), King Faisal Specialist Hospital and Research Center, Madinah, Kingdom of Saudi Arabia.
MBBS, DES
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Hadeel A. Ghunaim
From the Department of Internal Medicine (Daqqaq, Alhasan, Ghunaim),College of Medicine, Taibah University, Madinah, and from Department of Radiology (Daqqaq), Prince Mohammed Bin Abdulaziz Hospital, Ministry of National Guard Health Affairs, and from the Department of Radiology (Alhasan), King Faisal Specialist Hospital and Research Center, Madinah, Kingdom of Saudi Arabia.
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  • Figure 1
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    Figure 1

    - PRISMA study flowchart.

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    Figure 2

    - Risk of bias and applicability concerns graph: review authors’ judgements about each domain presented as percentages across included studies

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    Figure 3

    - Pooled accuracy rates of 2D-3D CNN in the identification of MS lesions

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    Figure 4

    - Pooled sensitivity rates of 2D-3D CNN in the identification of MS lesions.

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    Figure 5

    - Pooled specificity rates of 2D-3D CNN in the identification of MS lesions.

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    Figure 6

    - Pooled accuracy rates of 2D-3D CNN in the classification of MS lesions.

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    Figure 7

    - Pooled DSC of 2D-3D CNN in the segmentation of MS lesions.

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    Figure 8

    - Funnel plot of DSC in studies investigating the segmentation of MS lesions

Tables

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    Table 1

    - Features of included studies

    ArticleCountryDatasetSample sizeDiagnosisApplicationDeep learning architecturePerformance
    Afzal el al, 201815AustraliaJohn Hunter Hospital’s Dataset21-11 converted to MS-10 did not convert to MSClassification2D-CNNAccuracy
    Afzal el al, 202116AustraliaISBI and MICCAI datasets19127 scans of MSSegmentation2D-CNN-DSC-Sensitivity-Precision
    Alijamaat et al, 202017IranLaboratory of eHealth of the University of Cyprus5838 MS patients 20 healthy individualsIdentification2D-CNN-Accuracy-Precision-Sensitivity-Specificity
    Aslani et al., 201918Italy-Private dataset-ISBI 2015 longitudinal dataset51-37 patients from private dataset -14 patients from ISBI 2015 longitudinal datasetSegmentation2D-CNNDSC
    Aslani et al, 201919ItalyISBI 2015 Longitudinal MS Lesion Segmentation19MSSegmentation2D-CNN-DSC-Lesion-wise true-positive -Lesion-wise false-positive
    Coronado et al, 202020USACombiRx1,006Relapsing–remitting MSSegmentation3D-CNN-DSC-Lesion-wise true-positive-Lesion-wise false-positive
    Eitel et al, 201921GermanyClinical14776 MS patients 71 healthy patientsClassification3D-CNNAccuracy
    Kazancli et al, 201822SpainClinical59MSSegmentation3D-CNN-DSC-True Positive Rate-False Discovery Rate-Volume Difference
    La Rosa et al, 201823SwitzerlandClinical105-Training dataset: 32 patients with EDSS scores ranged from 1 to 2
    -Test dataset: 73 patients with EDSS scores ranged from 1 to 7.5
    Segmentation3D-CNN-DSC-Lesion-wise false positive-Lesion-wise true positive-Volume difference
    Roy et al, 201824USAISBI 201519-Training dataset: 5 patients with MS -Test dataset: 14 patients with MSSegmentation2D-CNNDSC
    Shrwan et al, 202125IndiaClinical38MSClassification2D-CNN-Accuracy-Precision-Recall f_score
    Siar et al, 201926IranClinical1111320 MS patients 791 healthy patientsClassification2D-CNN-Accuracy-Sensitivity-Specificity
    Valverde et al, 201827SpainMICCAI 2008 MICCAI 2016 ISBI 201560MSSegmentation3D-CNN-DSC-Sensitivity-Precision
    Wang et al, 201828ChinaeHealth Laboratory and Private data6438 MS patients 26 healthy patientsIdentification2D-CNN-Accuracy-Sensitivity-Specificity
    Zhang et al, 201829ChinaeHealth Laboratory and Private data6438 MS patients 26 healthy patientsIdentification3D-CNN-Accuracy-Sensitivity-Specificity
    • CNN: convolutional neural network, CombiRx: Combination Therapy in Patients with Relapsing-Remitting Multiple Sclerosis, DSC: Dice Similarity Coefficient, EDSS: Expanded Disability Status Scale, ISBI: International Symposium on Biomedical Imaging, MICCAI: Medical Image Computing and Computer Assisted Intervention, MS: Multiple sclerosis.

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    Table 2

    - Summary of CADS developed for MS using MRI neuroimaging modalities and details of deep learning architectures.

    ArticlePreprocessing toolboxOthers preprocessingToolboxK FoldDetailsClassifierLoss functionOptimizer
    Afzal el al., 201823-data augmentationKeras-6 convolutional layers + 6 Max Pooling--Proposed
    Afzal el al., 202124FMRIBPatch ExtractionKeras, Tensor Flow-2 convolutional layers + 2 Max Pooling + 1 fully connectedMultinomial LR--
    Alijamaat et al., 202025-data augmentation, Histogram Stretching, discrete wavelet transformKeras, Tensor Flow-15 convolutional layers + 1 Average Pooling + 1 fully connected + DropoutSigmoid-Adam
    Aslani et al., 201926FMRIBDecomposing 3D Data Into 2D ImagesKeras, Tensor Flow43 Parallel ResNet50s + 5 MMFF Blocks + 4 MSFU Blocks + MPR BlockSoftmaxSoft Dice Loss functionAdam
    Aslani et al., 201927-Data AugmentationKeras-ResNet50 + UFF Blocks-binary cross-entropyAdadelta
    Coronado et al., 202028-Magnetic Resonance Imaging Automatic Processing Pipeline--5 convolutional + 4 Context Modules + 3 Up Sampling Modules + 2 Localization Modules + 2 Segmentation + 3 Strides + 3 De-Conv + 1 UpscalingSoftmaxMulticlass Weighted DiceAdam
    Eitel et al., 201929FMRIBdata augmentationKeras, Tensor Flow-4 convolutional + 4 Max-Pooling + 4 DropoutSigmoid-Adam
    Kazancli et al., 201830Free SurferPatch ExtractionTensor Flow-2 convolutional + 2 Average Pooling + 2 batch normalization + 1 fully connected + 1 DropoutSoftmaxcross-entropyAdam
    La Rosa et al., 201831FMRIBManual Segmentation, LeMan-PV--4 convolutional + 2 Max Pooling + 4 batch normalization + 1 fully connected + 1 DropoutSoftmaxcross-entropyAdam
    Roy et al., 201832--Tensor Flow, Keras-15 convolutional--Adam
    Shrwan et al., 202133--Matlab R2020a-3 convolutional + 3 batch normalization + 3 Max Pooling + 2 fully connectedSoftmaxcross-entropySGDM
    Siar et al., 201934----25 LayersSoftmax--
    Valverde et al., 201835FMRIB-Keras, Tensor Flow-4 convolutional + 2 Max-Pooling + 4 batch normalization + 3 fully connected + 3 DropoutSoftmaxcategorical cross-entropyADADELTA
    Wang et al., 201836-histogram stretching, data augmentation--11 convolutional + 11 batch normalization + 4 Pooling + 3 fully connected + 2 DropoutSoftmax--
    Zhang et al., 201837-histogram stretching, data augmentation--7 convolutional +7 Pooling + 3 fully connected + 3 DropoutSoftmax--
    • ADADELTA: adaptive learning rate method, Adam: A Method for Stochastic Optimization, CADS: Computer-aided detection software, CDMS: clinically defined multiple sclerosis, EDSS: Expanded Disability Status Scale, FMRIB: Functional Magnetic Resonance Imaging of the Brain, MMFF: multi-modal feature fusion block,, MRI: Magnetic resonance imaging, MRIAP: Magnetic Resonance Imaging Automatic Processing, MSFU: multi-scale feature upsampling block, MPR: multi-planes reconstruction, Matlab: matrix laboratory, SGDM: Stochastic Gradient Descent Momentum, UFF: upsampling fused featu

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    Table 2

    - Summary of CADS developed for MS using MRI neuroimaging modalities and details of deep learning architectures.

    ArticleClinical data about cases and controls
    Afzal el al., 201823All patients included fulfilled the McDonald’s criteria. Out of these 21 patients, 10 converted to CDMS after one year, whereas 11 did not convert to CDMS after one year follow up.
    Afzal el al., 20212421 scans of 5 subjects are available for training purposes and already preprocessed with several steps like skull stripping, denoising, bias correction, and co-registration. These 5 subjects have 4 time points and one subject having 5 time points with a gap of approximately 1 year. These 21 scans are provided for training purposes only. For testing purposes, 61 scans are provided from 14 subjects.
    Alijamaat et al., 202025MRI images of 38 MS patients whose lesions are labeled by several neurologists and approved by radiologists. To increase the number of images, MRI images of 20 healthy individuals have been prepared by the authors and added to the existing data set.
    Aslani et al., 20192619 subjects divided into two sets, 5 subjects for training and 14 subjects for testing.Each subject has MRI data with a different number of time-points, normally ranging between 4 to 6.
    Aslani et al., 20192737 MS patients (22 females and 15 males) with mean age 44,6±12,2 years. The patient clinical phenotypes were 24 relapsing remitting MS, 3 primary progressive MS and 10 secondary progressive MS. The mean EDSS was 3,3±2, the mean disease duration was 13.1±8,7 years and the mean lesion load was 6.2±5.7 ml.
    Coronado et al., 202028-
    Eitel et al., 20192976 patients with relapsing-remitting MS according to the McDonald criteria 2010 and 71 healthy controls. Patients were excluded if they were outside the age range of 18 – 69 or did not have an MRI scan. All patients were examined under supervision of a board-certified neurologist at the NeuroCure Clinical Research Center (Charité – Universitätsmedizin Berlin) between January 2011 and July 2015.
    Kazancli et al., 201830-
    La Rosa et al., 201831-The training dataset was composed of 32 patients, 18 female / 14 male, mean age 34±10 years, with EDSS scores ranged from 1 to 2 (mean 1,6±0,3). Mean lesion volume is 0,11±0,40 ml (range 0.001-7.03 ml). Mean lesion load per case was 6,0±7,2 ml (range 0,3-37,2 ml).
    -The test dataset was made up of 73 patients, 50 females and 23 males (mean age 38±10 years). EDSS scores ranged from 1 to 7.5 (mean 2,6±1,5). Mean lesion volume was 0,25±3,29 ml (range 0.002-159.827 ml). Mean lesion load per case was 14,3±27,9 ml (range 0.2-162.9 ml).
    Roy et al., 201832128 patients enrolled in a natural history study of MS, 79 with relapsing-remitting, 30 with secondary progressive, and 19 with primary pro-gressive MS.
    Shrwan et al., 202133-
    Siar et al., 201934200 patients, including tumors and MS and healthy patients. Totally, the number of trench data for the brain tumor class was 461 images, 791 healthy patients, and 320 MS patients. The total number of data for the most 1286 images and test data was 384 images. Pictures were collected in the range of 6 to 80 years old and the average age was 43.
    Valverde et al., 20183560 patients with a clinically isolated syndrome (Hospital Vall d’Hebron, Barcelona, Spain) were scanned on a 3 T Siemens with a 12-channel phased-array head coil (Trio Tim, Siemens, Germany)
    Wang et al., 201836-
    Zhang et al., 201837-There are 38 patients in the eHealth dataset. 676 slices associated with plaques were selected. All Brain lesions were identified and delineated by experienced MS neurologists and were confirmed by radiologists.
    -Age-matched and gender-matched healthy controls (HC) of the eHealth dataset were included. The exclusion criteria for all volunteers were known neurological or psychiatric diseases, brain lesions, taking psychotropic medications, and contraindications to MR imaging.
    • ADADELTA: adaptive learning rate method, Adam: A Method for Stochastic Optimization, CADS: Computer-aided detection software, CDMS: clinically defined multiple sclerosis, EDSS: Expanded Disability Status Scale, FMRIB: Functional Magnetic Resonance Imaging of the Brain, MMFF: multi-modal feature fusion block,, MRI: Magnetic resonance imaging, MRIAP: Magnetic Resonance Imaging Automatic Processing, MSFU: multi-scale feature upsampling block, MPR: multi-planes reconstruction, Matlab: matrix laboratory, SGDM: Stochastic Gradient Descent Momentum, UFF: upsampling fused featu

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    Table 3

    - Subgroup analysis.

    ParameterNumber of studiesRate of DSC [95% CI]Heterogeneity
    Country
    Australia167.00 [66.80-67.20]Chi2 =2121.51
    Switzerland163.00 [62.80-63.20]p<0.00001
    I2 =100%
    USA266.70 [66.56-66.83] 
    Spain255.25 [55.11-55.39]
    Italy268.17 [68.04-68.31]
    DL architecture
    2D CNN464.94 [64.84-65.03]Chi2 =1067.22
    3D CNN462.63 [62.53-62.72]p<0.00001
    I2 =99.9%
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    Table 4

    - Leave-one-out analysis of the rate of DSC.

    Study excludedRate of DSC (95% CI)
    Afzal et al, 202163.32 (57.06-69.58)
    Aslani et al, 201962.92 (56.88-68.96)
    Aslani et al, 201963.38 (57.10-69.66)
    Coronado et al, 202061.89 (57.20-66.58)
    Kazancli et al, 201864.68 (58.67-70.69)
    La Rosa et al., 201863.89 (57.55-70.23)
    Roy et al., 201864.84 (58.96-70.71)
    Valverde et al., 201865.32 (60.02-70.62)
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Diagnostic effectiveness of deep learning-based MRI in predicting multiple sclerosis: A meta-analysis
Tareef S. Daqqaq, Ayman S. Alhasan, Hadeel A. Ghunaim
Neurosciences Journal Apr 2024, 29 (2) 77-89; DOI: 10.17712/nsj.2024.2.20230103

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Diagnostic effectiveness of deep learning-based MRI in predicting multiple sclerosis: A meta-analysis
Tareef S. Daqqaq, Ayman S. Alhasan, Hadeel A. Ghunaim
Neurosciences Journal Apr 2024, 29 (2) 77-89; DOI: 10.17712/nsj.2024.2.20230103
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