PPaperPicks

Cynthia Rudin

Duke University, USA

25 papers at tracked venues · 18 at CORE A* · active 20242026

Venues

Frequent coauthors

Papers

  1. AutoSchA: Automatic Hierarchical Music Representations via Multi-Relational Node Isolation
  2. Cosine Similarity is Almost All You Need (for Prototypical-Part Models)
  3. Resolving Predictive Multiplicity for the Rashomon Set
  4. Data Fusion for Partial Identification of Causal Effects
  5. Dimension Reduction with Locally Adjusted Graphs
  6. How Your Location Relates to Health: Variable Importance and Interpretable Machine Learning for Environmental and Sociodemographic Data
  7. Leveraging Predictive Equivalence in Decision Trees
  8. Models That Are Interpretable But Not Transparent
  9. Near-Optimal Decision Trees in a SPLIT Second
  10. Rashomon Sets for Prototypical-Part Networks: Editing Interpretable Models in Real-Time
  11. This EEG Looks Like These EEGs: Interpretable Interictal Epileptiform Discharge Detection With ProtoEEG-kNN
  12. Evaluating Pre-trial Programs Using Interpretable Machine Learning Matching Algorithms for Causal Inference
  13. FPN-IAIA-BL: A Multi-Scale Interpretable Deep Learning Model for Classification of Mass Margins in Digital Mammography
  14. FastSurvival: Hidden Computational Blessings in Training Cox Proportional Hazards Models
  15. Improving Decision Sparsity
  16. Interpretable Causal Inference for Analyzing Wearable, Sensor, and Distributional Data
  17. Interpretable Generalized Additive Models for Datasets with Missing Values
  18. Interpretable Image Classification with Adaptive Prototype-based Vision Transformers
  19. Navigating the Effect of Parametrization for Dimensionality Reduction
  20. Optimal Sparse Survival Trees
  21. Position: Amazing Things Come From Having Many Good Models
    ICML 2024 · Cynthia Rudin
  22. Safe and Interpretable Estimation of Optimal Treatment Regimes
  23. SentHYMNent: An Interpretable and Sentiment-Driven Model for Algorithmic Melody Harmonization
  24. Sparse and Faithful Explanations Without Sparse Models
  25. Using Noise to Infer Aspects of Simplicity Without Learning