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Auditor Models to Suppress Poor AI Predictions Can Improve Human-AI Collaborative Performance.

Katherine E Brown1, Jesse O Wrenn1,2, Nicholas J Jackson1

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Machine learning (ML) suppression can improve collaborative fairness and performance between clinicians and AI. Auditing ML predictions with uncertainty quantification enhances this effect, mitigating unfairness in healthcare AI.

Keywords:
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Area of Science:

  • Artificial Intelligence in Healthcare
  • Machine Learning Fairness
  • Human-AI Collaboration

Background:

  • Machine learning (ML) models are increasingly used in healthcare decision-making.
  • ML models can exhibit unfairness, leading to inconsistent outcomes across patient subpopulations.
  • Clinician overreliance on ML can perpetuate or exacerbate existing unfairness.

Purpose of the Study:

  • To evaluate the impact of ML suppression on collaborative fairness between clinicians and AI.
  • To assess the role of ML uncertainty quantification in auditing ML predictions.
  • To improve the performance and fairness of human-AI collaboration in healthcare.

Main Methods:

  • Utilized electronic health record data from Vanderbilt University Medical Center and MIMIC-IV-ED.
  • Predicted patient outcomes (death, ICU transfer, 30-day readmission) using gradient-boosted trees and an oracle model.
  • Simulated clinician decisions based on empirical data and measured performance using AUC and fairness using averaged odds difference.

Main Results:

  • ML suppression improved collaborative performance when ML outperformed humans (p < 0.034) without degrading fairness.
  • When humans outperformed ML, suppression improved performance (p < 5.2 × 10^-5), but human decision-making was fairer (p < 0.0019).
  • Integrating uncertainty quantification into suppression methods enhanced overall performance.

Conclusions:

  • Suppression of low-quality ML predictions via an auditor model shows potential for enhancing human-AI collaboration.
  • This approach can improve both the performance and fairness of AI systems in clinical settings.
  • Uncertainty quantification is a valuable tool for auditing ML and improving collaborative outcomes.