[71] |
Predict future risk |
Electronic Medical Records |
A multilayer architecture based on CNN (i.e., embedding, convolution, pooling, and classifier) |
Private hospital dataset collected in Australia |
[72] |
Diagnose and determine medications for the next visit |
Electronic Health Record |
Recurrent Neural Networks |
Patients from Sutter Health Palo Alto Medical Foundation |
[21] |
Analyze different motion patterns |
Personal profile data, sound level |
Long-short-term memory-based |
Two free data sets using smartphones and on-body wearable devices |
[10] |
Lung cancer detection |
Images |
CNN with seven layers and trained in transfer learning |
Data collected in K1 hospital located in Kirkuk city, Iraq |
[22] |
Detection of AD and in the diagnosis of dementia |
MRI Images |
Deep convolutional auto encoder (CAE) architecture |
ADNI database |
[33] |
Diagnose AD |
MRI Images |
Multi-projection fusion with CNN |
ADNI database |
[73] |
Detection of AD |
Images and text |
Deep network of auto-encoders |
ADNI database |
[37] |
Diagnosis and prognosis of COVID-19 |
Chest computed tomography (CT) images |
CNN |
Patients from the participating hospitals between September 2016 and January 2020 |
[76] |
COVID-19 classification |
Chest X-rays and computerized tomography images of the lungs |
CNN and feed-forward neural network |
Cohen’s Database and Kermany’s Database |
[78] |
COVID-19 classification |
Chest X-rays images |
Proposed CNN model |
Constructed dataset containing 180 COVID-19 and 200 normal |
[79] |
COVID-19 classification |
Chest CT (CCT) images |
Pre-trained CNN |
Dataset from local hospitals |
[80] |
Diagnosis of COVID-19 patients |
Chest X-Ray (CXR) images from COVID-19, normal, and other pneumonia categories |
A deep meta learning framework based on Siamese neural network |
Open access CXR dataset from multiple sources |
[81] |
COVID-19 screening and mass surveillance |
Chest CT scan |
ResNet50, Inception V3, Deep tree |
Kaggle and GitHub repositories |
[82] |
Estimate food attributes such as ingredients and nutritional values |
Images |
CNN |
Food-101 and Image-net |
[6] |
Voice pathology detection |
Voice signals |
CNN |
Saarbrucken voice disorder database |
[7] |
Voice pathology detection |
Voice signals |
CNN and Multilayer Perceptron (MPL) |
Saarbrucken voice disorder database |
[87] |
Automated egocentric human action and activity recognition |
Videos |
CNN and Long-Short-Term Memory |
Multimodal Insulin Self-Injection (ISI) dataset |
[20] |
Action recognition |
Videos |
3D convolutional neural network and LSTM |
UCF101 dataset |
[89] |
Human fall detection |
Videos |
RNN and LSTM |
NTU RGB+D Action Recognition Dataset |
[41] |
Predicting Gastrointestinal Bleeding Events |
Text: Electronic Health Record |
1-, 3-, and 5-layer neural networks |
EHRs of
Taichung Veterans General Hospital |
[30] |
Early diagnosis of AD |
R-fMRI image data |
Auto-encoder network |
ADNI database |