Table 6.
Authors | Disease | Methodology | Sub Methodology | Evaluation Metrics | Summary |
---|---|---|---|---|---|
Kamil Wnuk et al. [115] | Tumor | Deep Learning | CNN | HR, Log-rank P | A deep learning approach is used to predict tumors using DNA and immune activity. |
Jingcheng Wu et al. [116] | Neoantigen | Deep Learning | RNN | Fivefold cross-validation | A deep learning approach is used for the prediction of neoantigen with the help of HLA-peptide binding and immunogenicity. |
Lilija Aprupe et al. [117] | Lung cancer | Deep learning | Deep CNN | Confusion matrix | A deep learning approach is used to classify the labels of lung cancer on the basis of immune cells in lungs. |
Leeat Keren et al. [118] | Breast cancer | Deep learning | Neural network | Sensitivity, specificity | A deep learning approach is used to classify breast cancer based on immune cell images. |
Michael Widrich et al. [119] | N/A | NLP | Attention model | AUC | An attention-based model is used to predict the labels concerning immune repertoire. |
Guangyuan Li et al. [120] | Dengue virus, cancer neoantigen and SARS-Cov-2 | Deep Learning | Classification | sensitivity, ten-fold cross-validation | Presented DeepImmuno-CNN model outperformed another prediction workflow when applied to diverse real-world immunogenic antigen datasets, including cancer and COVID-19 infection. |
Han, Y et al. [121] | Lung adenocarcinoma | Machine Learning & Deep Learning | naive Bayes, random forest, support vector machine, and neural network-based deep learning | F1 Score, Confusion matrix | Optimized model for personalized management of early-stage LUAD patients. |
Zhu et al. [122] | Ovarian Cancer | Deep Learning | mask-R-CNN (MRCNN) | leave-one-out cross-validation |
Novel analytic and modelling pipeline of IMC images using deep learning and applied it to predict patient survival rates using IMC data generated from patient samples of treatment-naïve HGSC tumor tissues. |
Meng Jiaa et al. [123] | Thyroid Cancer | Machine Learning | Supervised Learning (Classification algorithm) |
ROC, AUC | A machine learning approach is used to classify thyroid cancer based on immune infiltration |
Zi-zhuo Li et al. [124] | LGG | Deep Learning | Neural network | Confusion matrix | A neural network is used to classify LGG patients based on immunity. |
Shaista Hussain et al. [125] | N/A | Deep Learning | Transfer learning | Ground truth | A transfer learning analysis is done for drug anomaly detection. |
Sebastian Klein et al. [126] | Tumor | Deep Learning | CNN | AUC | A deep learning approach is used to predict the tumor infiltrating lymphocyte clusters |
Ofer Isakov et al. [127] | Inflammatory bowel diseases (IBDs) | Machine Learning | Random forest, simply, xgbTree and glmnet | AUC | A machine learning method was created, which differentiated IBD-risk genes from non-IBD genes using information from expression data and many gene annotations. |
When Ning et al. [128] | Periodontitis | Deep Learning and Machine Learning | K-means clustering and ANOVA, support vector machine | cross-validation (CV), accuracy, and area under the curve (AUC) | A deep learning based Autoencoder was applied to identify immune subtypes and key immunosuppression genes. Key factors for the mediation of immune suppression in periodontitis were also identified. |
Panwen Tian, Bingxi He et al. [129] | non-small cell lung cancer | Deep Learning | deep convolutional neural network | receiver operating characteristic curve (ROC), Kaplan-Meier curves and Log-rank test | A deep CNN model was created to work with CT images to assess the levels of PD-L1 in a non-small cell Lung Cancer. Furthermore, the response to immunotherapy was also predicted |
Carlo Augusto Mallio et al. [130] | COVID-19 | Deep Learning | deep convolutional neural network | sensitivity, specificity, AUC, ROC and Mann–Whitney U test | A deep CNN model was applied to CT images of Pneumonia, COVID-19 and ICI pneumonitis to differentiate between the three. |
Riku Terrki et al. [131] | Breast Cancer | Deep Learning | convolutional neural network | F-score, an area under receiver operating characteristics curve (AUC), and with accuracy, sensitivity, specificity, precision, pairwise Pearson’s linear (two-tailed) correlation coefficient (r), 3-fold cross-validation and leave-one-out cross-validation | A CNN model was proposed and evaluated based on the antibody-guided annotation to identify and quantify the areas with high immune cell concentration in the case of Breast Cancer using samples stained in haematoxylin and eosin (H&E) |
Changhee Park et al. [132] | lung adenocarcinoma | Deep Learning | Supervised Learning (Classification algorithm) |
P-value, rho, ROC AUC. | A deep learning approach is used to classify lung adenocarcinoma using LAUD dataset |
Chunyu Huang et al. [133] | Pregnancy Outcomes | Deep Learning | Supervised Learning (Classification algorithm) |
Accuracy, specificity, Sensitivity | A deep learning approach is used to classify the pregnancy outputs |
Xiwei Huang et al. [134] | WBC Counting | Deep Learning | Resnet-50 Neural network | Precision, Recall, and F1_Score | a label-free three-type WBC classification method using the transfer learning technique based on the Resnet-50 neural network. |
Priya Lakshmi Narayanan et al. [135] | Ductal carcinoma in situ | Deep Learning | Resnet 101-based RCNN network15, UNet16, MicroNet17 |
Accuracy (F1_Score), cross-validation | A deep computational framework to [1] to develop and validate a computational pipeline that accurately detects and segments individual DCIS ducts; [2] to characterise the immune microecology for each DCIS duct using spatial statistics on H&E and IHC for TILs; [3] to test the difference in DCIS microecology between samples with pure DCIS and DCIS samples derived from IDC patients (adjacent DCIS, as a surrogate for poor prognosis DCIS). |