Table 1 Comprehensive overview of various lung cancer prediction models.

From: Secure and interpretable lung cancer prediction model using mapreduce private blockchain federated learning and XAI

Reference

Model

Outcome

Computational Efficiency

MapReduce

Private Blockchain

FL

XAI

Predictive Model

Limitations

Nannapaneni, D. et al., 202347

CNN (3 conv, 2 max-pooling, 1 FC)

Detected lung cancer from histopathology images

Preprocessing improved image quality and analysis

×

×

×

×

Image classification (histopathology)

Limited comparison with advanced methods or interpretability

Shakeel, P.M. et al., 202248

Enhanced DNN, hybrid optimization, ensemble classifier

robust lung cancer detection

Feature selection and image enhancement improved efficiency

×

×

×

×

Multilevel brightness preservation, region segmentation

Lacks interpretability and real-world validation

Shen, Z. et al., 202350

WS-LungNet (semi-supervised DL)

Improved nodule detection and malignancy evaluation

Semi-supervised learning utilized unlabelled data

×

×

×

×

Nodule segmentation, malignancy prediction

Needs further validation and comparison with supervised methods

Xu, H., 202351

CNN (ResNet-based, deeper architectures)

Improved accuracy in lung CT image classification

Addressed low learning efficiency using deeper networks

×

×

×

×

Classification of lung CT images

Limited privacy and interpretability

Chandran, U. et al., 202355

ML-based lung cancer risk prediction model

Identified a high-risk group with 9x higher lung cancer incidence

Scalable predictions using real-world EHR data

×

×

×

×

Risk prediction for high-risk groups using EHR and claims data

Lacks advanced privacy and interpretability mechanisms

Shaffie, A. et al., 201960

MGRF with 3D HOG, stacked auto-encoder

Feature extraction and fusion for lung cancer classification

Efficiently analyzed large datasets using fusion techniques

×

×

×

×

Diagnosis, prognosis, survival prediction (CT/MRI)

Lacks privacy-preserving techniques and interpretability

Agrawal, A. et al., 201161

Combined voting classifier

Predicted Survival with 90% accuracy for 6 months, 1 Year, 5 years

Utilized the SEER dataset for efficient survival prediction

×

×

×

×

Survival prediction using SEER

Limited external validation and interpretability

Mohalder, R.D. et al., 202262

CNN (ReLU, softmax)

Detected abnormal tumor patterns in HPI

Effectively analyzed complex tumor data

×

×

×

×

Tumor pattern recognition in CRC (HPI)

Limited comparison with state-of-the-art methods, and lacks interpretability.

Su, Y. et al., 202263

WGCNA with Lasso, DT, RF, SVM

Detected colon cancer, staging via differential gene expression

Reduced complexity using Lasso and WGCNA

×

×

×

×

Gene-based classification and staging

Lack of privacy, collaborative learning, and interpretability

Garg, S. et al., 202064

Pre-trained CNNs (MobileNet, InceptionResNetV2, etc.)

Detected colon and lung cancer (HPI)

Enhanced efficiency with pre-trained models and augmentation

×

×

×

×

Cancer detection using histopathology

Lacks privacy, collaborative learning, and interpretability

Li, L. et al., 201965

DL-CAD system

Detected lung nodules (< 3 mm), malignancy prediction

Efficiently analyzed small nodules (LIDC-IDRI, NLST datasets)

×

×

×

×

Lung nodule detection and malignancy prediction

Moderate accuracy (86.2%), lacks privacy and interpretability

Teramoto, A. et al., 201766

Deep CNN (DCNN)

Automated classification of lung cancer with 71% accuracy

Small dataset (76 cases), limited computational demands

×

×

×

×

Lung cancer classification

Low accuracy, small dataset, lacks privacy, and interpretability.

Proposed interpretable global model

CNN, EfficientNetB0, InceptionV3, DenseNet121

High predictive accuracy (98.21%) in lung cancer diagnosis

Enhanced through MapReduce for distributed processing

Lung cancer prediction using aggregated and decentralized learning

Requires synchronization and computational resources