Equal Opportunity of Coverage in Fair Regression
–Neural Information Processing Systems
We study fair machine learning (ML) under predictive uncertainty to enable reliable and trustworthy decision-making. The seminal work of "equalized coverage" proposed an uncertainty-aware fairness notion. However, it does not guarantee equal coverage rates across more fine-grained groups (e.g., low-income females) conditioning on the true label and is biased in the assessment of uncertainty. To tackle these limitations, we propose a new uncertainty-aware fairness - Equal Opportunity of Coverage (EOC) - that aims to achieve two properties: (1) coverage rates for different groups with similar outcomes are close, and (2) the coverage rate for the entire population remains at a predetermined level. Further, the prediction intervals should be narrow to be informative. We propose Binned Fair Quantile Regression (BFQR), a distribution-free post-processing method to improve EOC with reasonable width for any trained ML models. It first calibrates a hold-out set to bound deviation from EOC, then leverages conformal prediction to maintain EOC on a test set, meanwhile optimizing prediction interval width. Experimental results demonstrate the effectiveness of our method in improving EOC.
Neural Information Processing Systems
Apr-25-2026, 09:21:29 GMT
- Country:
- North America > United States > Illinois (0.15)
- Genre:
- Research Report > New Finding (0.34)
- Industry:
- Health & Medicine (0.67)
- Technology: