The field of machine learning is moving towards a greater emphasis on causal discovery and explainability. Researchers are developing new methods to identify causal relationships in complex systems, such as neural networks and time series data. These methods include the use of generative models, causal graphs, and ensemble learning techniques. Additionally, there is a growing interest in explaining machine learning predictions, particularly in high-stakes domains like healthcare. Techniques like SHAP and causal feature attribution are being developed to provide more transparent and interpretable models. Noteworthy papers in this area include TranCIT, which introduces a comprehensive analysis pipeline for quantifying transient causal interactions, and Causal SHAP, which integrates causal relationships into feature attribution. Other notable papers include Causal Sensitivity Identification using Generative Learning and Causal Representation Learning from Network Data, which demonstrate the effectiveness of generative models and graph neural networks in identifying causal relationships.
Causal Discovery and Explainability in Machine Learning
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Effects of Distributional Biases on Gradient-Based Causal Discovery in the Bivariate Categorical Case
Ensemble Learning for Healthcare: A Comparative Analysis of Hybrid Voting and Ensemble Stacking in Obesity Risk Prediction
Meta-Imputation Balanced (MIB): An Ensemble Approach for Handling Missing Data in Biomedical Machine Learning