Kaplun et al. [90] |
2021 |
Extract complex features from cancer cell images and classify malignant and benign cancer cell images |
BreakHis [91] |
Microscopic images |
Yellow highlighted segments in the image |
DL |
ANN (2‐layer feed forward neural network) |
Saarela et al. [92] |
2021 |
Comparing different feature importance measurements using linear (LR) and nonlinear (RF) classification ML models |
Breast Cancer Wisconsin (Diagnostic) [87] |
Text |
L1‐LR all except one (compactness 3) RF nine features were significant |
ML |
L1 regularized LR, RF |
Adnan et al. [93] |
2022 |
Proposing a model in BC metastasis prediction that can provide personalized interpretations using a very small number of biologically interpretable features |
Amsterdam Classification Evaluation Suite (ACES) [94] (composed of 1616 patients, among which 455 is metastatic) |
Genomic data |
N/A |
M/DL |
RF, LR, lSVM, rSVM, ANN |
Maouche et al. [95] |
2023 |
Propose an explainable approach for predicting BC distant metastasis that quantifies the impact of patient and treatment characteristics |
Public data set composed of 716 Moroccan women diagnosed with breast cancer [96] |
Clinicopathological data |
The characteristics have different impacts ranging from high, moderate, and low |
ML |
Cost‐sensitive CatBoost |
Deshmukh et al. [97] |
2023 |
Improve the qk‐means clustering algorithm using LIME to explain the predictions |
The breast cancer data set has 600 attributes or patient records and 7 features |
Text |
A tabular explainer explains the positively and negatively correlated features |
ML |
qk‐means (hybrid classical‐quantum clustering approach) |