Table 1.
Comparison of state-of-the-art studies on breast cancer detection and federated learning.
Ref. | Methodology | Dataset Used | Key Findings | Limitations |
---|---|---|---|---|
[7] | Auto-encoder for unsupervised breast cancer identification | Breast Cancer Wisconsin (Diagnostic) Dataset | Auto-encoder achieved 98.4% precision and recall | No comparison with other unsupervised methods, limited discussion on scalability |
[30] | FL framework with CNN | Multiple cancer datasets | Achieved above 90% accuracy for five cancer types | Limited comparison with MLP and data imbalance not addressed |
[31] | FL with transfer learning, SMOTE, and FeAvg-CNN + MobileNet model | Mammography datasets | Proposed method showed superior classification performance | No exploration of federated privacy concerns |
[25] | FL for histopathology-based breast cancer classification | BreakHis dataset | FL model performed on par with centralized learning | Limited discussion on scalability to larger datasets |
[32] | DL-based Xception model | Kaggle dataset | Model exhibited proficiency in breast cancer detection | Increased processing time not discussed |
[33] | FL for predicting triple-negative breast cancer | Confidential patient data | FL enhanced the effectiveness of detecting triple cancer | Specific FL implementation details not provided, potential variability in data quality |